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EP 0 911 592 B1 |
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EUROPEAN PATENT SPECIFICATION |
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Mention of the grant of the patent: |
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31.03.2004 Bulletin 2004/14 |
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Date of filing: 23.10.1998 |
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Refrigerating cabinet with mould for forming ice cubes
Kühlschrank mit Zellen zum Herstellen von Eiswürfeln
Réfrigérateur avec des moules pour la formation de glaçons
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Designated Contracting States: |
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DE ES FR GB |
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Priority: |
23.10.1997 IT TO970931
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Date of publication of application: |
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28.04.1999 Bulletin 1999/17 |
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Proprietor: Merloni Elettrodomestici S.p.A. |
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60044 Fabriano (AN) (IT) |
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Inventor: |
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- Cappelletti, Domenico
Matelica (MC) (IT)
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References cited: :
EP-A- 0 707 184 WO-A-96/23184 GB-A- 1 441 520 US-A- 3 306 567 US-A- 4 804 083
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EP-A- 0 851 191 DE-A- 1 451 058 US-A- 3 226 939 US-A- 3 443 785
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| Note: Within nine months from the publication of the mention of the grant of the European
patent, any person may give notice to the European Patent Office of opposition to
the European patent
granted. Notice of opposition shall be filed in a written reasoned statement. It shall
not be deemed to
have been filed until the opposition fee has been paid. (Art. 99(1) European Patent
Convention).
|
[0001] The present invention refers to a refrigerating cabinet, of the type comprising a
compartment within which at least a mould for forming ice cubes can be housed, said
mould having a plurality of sockets apt to be filled with water and an axis of minimum
encumbrance, as well as to an improved mould, which can be used in connection with
a refrigerating cabinet.
[0002] As generally known, refrigerating cabinets equipped with a compartment for the storage
of fresh food and a freezer compartment or refrigerating cabinets equipped with either
one freezer compartment or one compartment for the storage of fresh food, can be provided
with moulds for forming ice cubes, which are usually obtained by a plastic or metal-sheet
tray.
[0003] Said trays have dividing inserts inside, which define a number of sockets arranged
on a horizontal plane, usually in a substantially chequered pattern.
[0004] For its use, the sockets of the tray are first filled up with water and then the
tray is placed in its horizontal position either inside the freezer compartment or
in a special compartment provided in the compartment for the storage of fresh food,
so as that the water contained in the tray can solidify.
[0005] As a result, ice cubes are formed inside the sockets, which can be released from
the dividing inserts through a mechanical action. To this purpose, dividing inserts
are sometimes mutually articulated and fitted with a lever, whose actuation eases
the ice cubes release.
[0006] Many improvements and changes have been made to the type of mould for forming ice
cubes described above, as well as to its use; specifically the use of individual plastic
cups loused in the tray to define the sockets have been provided instead of the dividing
inserts, so as to make ice cubes release easier through deformation of the cup itself.
[0007] The trays for forming ice cubes previously described have However quite a number
of drawbacks.
[0008] First of all, the risk of pouring part of the water contained in the not very deep
trays, when transferring them from the water tap to the refrigerating cabinet, is
extremely high. As a result, not only the kitchen floor and furniture can be splashed
with water, but especially the bottom and sides of the tray itself will be wet and
tend to adhere to the compartment walls of the refrigerating cabinet during the water
hardening process.
[0009] Similarly, once the trays are placed inside the compartment in the refrigerating
cabinet and a tray is accidentally hit while the water contained in it has not yet
turned to ice, then water may be splashed all over in the compartment.
[0010] Above all, said trays take a lot of space inside the compartment where they are positioned;
to this purpose it should be appreciated that quite often the freezer compartment
where said trays are usually placed has small dimensions; as a matter of fact, the
known solution always provide for said trays to be placed in a horizontal position,
thus reducing the space available for the storage of food. Document DE-A-1451 058
in the name of Siemens-Electrogeräte GmbH discloses a possible solution of space encumbrance
inside the compartment, presenting a tray that can be used both in horizontal and
in vertical position, yet it do not solve the above disadvantages since it presents
an open surface that can be port for possible contamination agents, and it is not
efficient in use once it is used in vertical position.
[0011] It should also be appreciated that the food to be stored cannot be placed on top
of said known trays if water has not yet solidified, or due to poor cleanliness, since
the trays are usually not provided with a lid.
[0012] The extraction of the ice cubes from said trays also requires handling the latter
to a considerable extent, with a possible ice cubes contamination.
[0013] Finally, the sublimation of solidified water from the trays expedites a phenomenon,
i.e. the ice formation on the refrigerating cabinet walls, which should be always
reduced in the refrigerating cabinets.
[0014] The present invention has the aim to solve the above drawbacks and provide a refrigerating
cabinet equipped with a mould for forming ice cubes, as well as a mould, which has
a more efficient and improved realization and performance compared to previous solutions.
[0015] In this frame, it is the main aim of the present invention to provide a refrigerating
cabinet equipped with a mould for forming ice cubes, which detracts as little space
as possible from the space for the storage of food.
[0016] A second aim of the present invention is to provide a refrigerating cabinet wherein
water dripping caused by accidental shaking or tilting of a mould for forming ice
cubes is either minimized or removed.
[0017] A third aim of the present invention is to provide a refrigerating cabinet equipped
with a mould for forming ice cubes, which hinders the water contamination during its
solidification and ice cubes release.
[0018] A fourth aim of the present invention is to provide a refrigerating cabinet equipped
with a mould for forming ice cubes, which allows the distribution of ice cubes without
the need of picking them up either with one's hands or with the aid of tongs.
[0019] A fifth aim of the present invention is to provide a mould for forming ice cubes,
which can be employed more rationally inside a refrigerating cabinet.
[0020] In order to achieve such aims, it is the object of the present invention a refrigerating
cabinet, a mould for forming ice cubes and a method for forming ice cubes incorporating
the features of the annexed claims, which form an integral part of the present description.
[0021] Further aims, features and advantages of the present invention will become apparent
from the following detailed description and the annexed drawings, which are supplied
by way of non limiting example, wherein:
- Fig. 1 shows schematically a mould for forming ice cubes for a refrigerating cabinet,
according to the present invention;
- Fig. 2 shows schematically a vertical section of a mould for forming ice cubes for
a refrigerating cabinet, according to the present invention;
- Fig. 3 shows schematically the mould for forming ice cubes of Fig. 1 in a first working
position;
- Fig. 4 shows schematically the mould for forming ice cubes of Fig. 1 in a second working
position;
- Fig. 5 shows schematically the mould for forming ice cubes of Fig. 1 in a third working
position;
- Fig. 6 shows schematically the mould for forming ice cubes of Fig. 1 in a possible
application;
- Fig. 7 shows schematically a possible embodiment of a mould for forming ice cubes
for a refrigerating cabinet, according to the present invention;
- Fig. 8 shows schematically a vertical section of the mould for forming ice cubes of
Fig. 7.
[0022] Fig. 1 shows schematically a mould for forming ice cubes 1 according to the present
invention, which consists of an internally hollow housing 2, having a generally parallelepipedon
shape; said housing 2 is completely closed save for a side opening 3, which is provided
for water inlet; said opening 3 may be fitted with a plug or similar closing means,
not represented in the figures for simplicity's sake.
[0023] The housing 2 can be manufactured in two halves to be joined and sealed together,
either fixedly or removably through the aid of a gasket for easier cleaning inside;
this may be convenient when the use of thermosetting plastic materials or metal materials
is desired.
[0024] Alternatively, the mould 1 can be manufactured as a one-piece element through a moulding
or blow-moulding process in a simple and fast way.
[0025] In the annexed figures, the internal elements of the mould 1 are directly visible
also from the outside of the housing 2 for simpler representation (to this purpose,
it is assumed that the mould 1 is manufactured with a transparent material).
[0026] Three arrays of sockets 7 are defined within the housing 2, indicated with 4, 5 and
6 from top to bottom, respectively, which are arranged one on top of the other and
extend between the two walls of the housing 2 having larger surface. Depending upon
the chosen embodiment, the arrays of sockets 7 can be manufactured integrally with
one of the two halves of the housing 2, or integrally with the one-piece element realizing
it.
[0027] The sockets 7 consist of substantially hemispheric recesses or cavity, which are
separated between them by partition walls 8. In the above example, arrays 4 and 5
carry an equal number of sockets 7 (six sockets), even if a different number of sockets
may be contained; the array 6 forming the bottom of the housing 2 carries a higher
number of sockets 7 compared to arrays 4 and 5 (eight sockets).
[0028] The three arrays 4, 5 and 6 substantially define three areas inside the housing 2,
indicated with 9, 10 and 11 respectively, which are open on the side closer to the
opening 3; said three areas 9, 10 and 11 are also in communication on the opposite
side through a calibrated passageway 12.
[0029] Fig. 2 shows a section of a likely embodiment of the mould for forming ice cubes
1, where it can be seen how the three arrays 4, 5 and 6 actually define three areas
9, 10 and 11; in this figure it can be seen also how the partition walls 8 have a
depression 15, whose function is to improve the throughflow and the levelling of water
between the sockets 7.
[0030] From Fig. 2 it can be seen also how above the partition walls 8 there is enough space
to let ice cubes go through, when they have to be released from the sockets, as better
described in the following.
[0031] Above all, the section represented in Fig. 2 shows the presence of a axis A of minimum
encumbrance, i.e. an axis according to which the housing 2 has a substantially smaller
dimension than the one of the other two axis; such a dimension is substantially equal
to the width of the sockets 7.
[0032] In Fig. 3 the mould for forming ice cubes 1 is represented in a first operating position,
which is vertical, i.e. the position where water is filled in it through the opening
3.
[0033] As it can be appreciated, in this position, water is filled to the same level in
all three areas 9, 10 and 11, since in this position they intercommunicate on their
bottom through the calibrated passageway 12. During this step, water is filled in
the housing 2 until it reaches a preset level 16, indicated by a proper notch 20,
engraved and clearly visible from outside the housing 2, which is manufactured in
a substantially transparent material.
[0034] Then, as represented in Figs. 4 and 5, the mould for forming ice cubes 1 is rotated
(counterclockwise, with reference to said figures) so that the water contained in
the areas 9, 10 and 11 can be distributed inside the sockets 7 of the three arrays
4, 5 and 6.
[0035] Since the number of sockets 7 in the arrays 4 and 5 is smaller than the number of
sockets provided for in the array 6, and due to the fact that areas 9, 10 and 11 are
initially filled with the same volume of water, it is clear that areas 9 and 10 will
have water in excess compared to the water required to fill the sockets 7 of arrays
4 and 5.
[0036] During rotation of the mould 1, such an excess water is free to overflow towards
the array 6 of the area 11 or simply flow down through the calibrated passageway 12;
thus, an equal filling of sockets 7 in all three arrays 4, 5 and 6 will be reached.
[0037] To this purpose, as it can be noticed, the partition walls 8 ensure water levelling
in the adjacent sockets 7 through their respective depressions 15; they have the function
of avoiding a continuous ice crust formation over any of said arrays 4, 5 or 6.
[0038] Once the mould 1 is placed in the position of Fig. 5, and consequently the three
arrays of sockets are filled with water, the mould itself can be introduced inside
a freezer compartment of the refrigerating cabinet according to the invention, not
shown here, i.e. with the arrays 4, 5 and 6 of sockets 7 being arranged one on top
of the other, so that the space occupied in plan by the housing 2 is reduced to a
strip having a width substantially equal to the diameter of a socket 7.
[0039] It should also be noted that the passageway 12, may be restricted to let the area
9 intercommunicate with the area 10 alone, if so required.
[0040] In this instance, in the mould 1 water inlet will be provided until a level 16B is
reached (Fig. 3), being higher than the level 16 of areas 9 and 10 only; according
to such an embodiment the area 11 and the relevant array 6 of sockets 7 will be filled
only by overflow from the overstanding arrays 4 and 5. Said solution allows for eventually
obtaining a passageway 12 having a larger section, requiring less moulding precision
for the manufacture of the housing 2.
[0041] Fig. 6 shows the mould for forming ice cubes 1 in a possible way of arranging it
in the refrigerating cabinet according to the present invention. In this figure, number
17 indicates a door of a refrigerator compartment, for example of the freezing compartment,
whose internal face or inner door panel is fitted with proper racks or seats 18 to
house two moulds 1 in their working position.
[0042] In this figure number 19 indicates some cavities obtained in the racks 18 allowing
for the insertion of one's hand fingers, so making the withdrawal of moulds 1 easier.
[0043] When water in the sockets 7 has solidified and ice cubes are needed, it will be enough
to withdraw the housing 1 from the compartment of the refrigerating cabinet wherein
it is housed and apply a twisting force to the housing 2, similarly to the operation
required for the moulds according to the prior art, in order to realize the release
of the ice cubes from the sockets 7.
[0044] As previously mentioned, since arrays 4, 5 and 6 are sufficiently apart from each
other, the expulsion of the ice cubes is possible from the sockets 7 in the areas
9, 10 and 11 and subsequently through the opening 3 of the housing 2, for example
to be expelled directly in an ice-bucket, not shown here for simplicity's sake.
[0045] Figs. 7 and 8 represent a mould for forming ice cubes 101 whose geometric configuration
is suitable for allowing a blow-moulding manufacturing process, and therefore manufactured
in one single piece.
[0046] Said mould 101 consists of a housing 102 having a circular opening 103, which in
this instance is placed on a side wall of the housing 102, and of three arrays 104,
105, 106 of sockets 107, with their respective partition walls 108 and levelling depressions
115. As it can be noticed, also in this instance a calibrated passageway 112 is provided,
which puts in communication areas 109, 110 and 111 defined by the arrays 104, 105,
106 within the housing 102.
[0047] Moreover, the mould 101 has wings 122, which are used to insert the mould for forming
ice cubes 101 in proper guides when it is placed in the racks 18 of the door 17 (Fig.
6).
[0048] In the instance of the mould shown in Fig. 7, an overflow hole 120 may be provided
instead of a notch (20, Fig. 3) to mark the filling level 116, to allow for excess
water to flow out of the housing 120 during the filling operation; this may prove
useful should said notch not be directly visible, for example because the housing
102 is manufactured in a matt material.
[0049] Fig. 8 represents a section of the mould for forming ice cubes 101 of Fig. 7, where
it can be appreciated how the configuration of areas 109, 110, 111 and of sockets
107 may concur to form a geometric configuration to make mechanical action on sockets
107 easier.
[0050] In particular, such a geometric configuration makes it possible to grip the sockets
107 directly with one's fingers; this also allows for licking the rear and bottom
sides of the sockets with some hot water eventually used to favour ice cubes release.
[0051] Moreover, according to a further variant embodiment, the opening 103 may be conceived
in order to favour the ice cubes distribution, i.e. avoiding the use of tongs or even
anybody's hands to distribute the ice cubes in glasses, carafes or other containers.
[0052] Specifically to this purpose, the opening 103 can be provided in such a way to allow
the passage of one ice cube at a time, for example as provided in dispenser systems
for sweets handy packs; wherever required, said opening 103 can be fitted with a lid
or movable partition.
[0053] The features and the advantages of the present invention are clear from the above
description.
[0054] According to the invention, due to the fact that the mould for forming ice cubes
has a highly reduced thickness and that it can be placed in an upright position, the
space .required in plan in the compartment of a refrigerating cabinet is smaller.
[0055] To this purpose, the refrigerating cabinet according to the invention is advantageously.
equipped with a door whose inner-door panel has at least a proper recess or seat to
house the improved mould for forming ice cubes.
[0056] A further advantage is due to the fact that the mould described by way of example
is manufactured, which is realized as a closed housing, can be handled in a simpler
and safer manner with respect to the known state of the art, removing all the problems
associated with water dripping caused by accidental shaking or tilting deriving from
the use of flat trays.
[0057] Moreover, the use of a closed housing allows for reducing or totally removing any
contacts with the ice cubes, either directly or with the aid of tools, with the result
of a more comfortable and healthier use.
[0058] The closed housing is also advantageous while the mould is staying inside the freezer
compartment, as it protects the cubes from contamination and prevents that water,
while sublimating, determines condensation on the freezer compartment walls, with
the consequent frost forming; as a result, defrost cycle times will be shorter for
the refrigerating cabinets.
[0059] By way of example, the guiding wings (122) for inserting the mould in its relevant
guides or seats on the inner-door panel may be configured as hooking means to ensure
coupling on proper supports or even inside the selected compartment.
[0060] According to a further variant embodiment, the mould for forming ice cubes may be
equipped with a pedestal or a flat base for allowing its location directly on the
bottom of the compartment, instead of using the inner door panel.
[0061] The materials which can be used for the manufacture of the mould are available from
a wide selection, either plastic or metal; plastic materials can be either clear or
matt, according to technical and aesthetic requirements, either hard or flexible according
to their moulding and assembly process; as mentioned above, the shapes of the mould
and its various elements may differ from the ones described by way of example in order
to favour the manufacturing operations.
[0062] As previously mentioned, if the water level inside the mould is not visible when
matt materials are used, then proper overflow holes may be provided in the mould housing
at the height of the preset filling levels, so as to prevent water from exceeding
a preset volume.
[0063] When hard materials are employed, the release of ice cubes can be simply obtained
through the thermal action of tap water, whereas when flexible materials are used,
the exertion of a mechanical actuation will favour the release of the ice cubes.
[0064] The number of arrays and sockets will obviously differ according to the needs and
geometrical requirements of the various possible installations; also the shape of
the sockets may differ from the one described above, based on manufacturing and aesthetic
necessity.
[0065] Finally, the opening for water inlet can be provided on one of the sides walls having
greater surface of the mould, as shown in the Fig. 7, to ensure the filling of the
mould by keeping it in its horizontal position. Obviously, this can be reached by
properly positioning the notch 20 or the overflow hole replacing it.
[0066] In this instance, the mould will be positioned so as to have its axis (A) of minimum
encumbrance in a vertical position; then the mould will be lifted up until the axis
(A) of minimum encumbrance reaches its horizontal position. Thereafter the mould will
be rotated to let the water introduced in the housing to flow to all the sockets of
the arrays as foreseen, and be ready to be housed inside the refrigerating cabinet.
1. Refrigerating cabinet, comprising a compartment within which at least a mould for
forming ice cubes can be arranged, said mould:
- having a plurality of sockets (7) apt to be filled with water;
- presenting a minimum encumbrance size substantially of the same width of said sockets
(7);
- and being arranged inside said compartment of the refrigerating cabinet so as to
have said minimum encumbrance size protruding inside the cabinet,
characterized in that said mould (1, 101) consists of a closed housing (2, 102) being internally hollow
and provided with common water inlet means (3, 103).
2. Refrigerating cabinet, according to claim 1, characterized in that said compartment has a door (17) wherein one or more seats (18) are defined to arrange
one or more of said moulds (1, 101), and/or has guides and/or hooks for at least one
of said moulds (1, 101) are defined.
3. Refrigerating cabinet, according to claim 1, characterized in that said sockets (7) are arranged in a way that in use said sockets (7) can be almost
completely filled with water.
4. Refrigerating cabinet, according to claim 1, characterized in that within said housing (2, 102) at least two arrays (4, 5, 6; 104, 105, 106) of sockets
(7, 107) are provided, said arrays (4, 5, 6; 104, 105, 106) being one on top of the
other when said mould (1, 101) is arranged in said compartment.
5. Refrigerating cabinet, according to claim 4, characterized in that said arrays (4, 5, 6; 104, 105, 106) of sockets (7, 107) define separate areas (9,
10, 11; 109, 110, 111) within said housing (2, 102), at least some of said areas (9,
10, 11; 109, 110, 111) being in particular intercommunicating through at least a calibrated
passageway (12, 112).
6. Refrigerating cabinet, according to claim 1, characterized in that said housing (2, 102) is equipped with means (20, 120) for indicating the maximum
water volume to be let in.
7. Refrigerating cabinet, according to at least one of the previous claims, characterized in that said mould (1, 101) has at least an opening (3, 103), whose configuration is fit
for the distribution of ice cubes from said sockets (7, 107) outside said housing
(2).
8. Method for forming ice cubes, which uses a mould (1, 101) for forming ice cubes being
filled with water and then housed inside a refrigerating cabinet to cause water solidification,
characterized in that it provides for the following steps:
a) introduction of water in a mould (1, 101) consisting of an internally hollow closed
housing (2, 102), which contains arrays (4, 5, 6; 104, 105, 106) of sockets (7, 107)
defining separate areas (9, 10, 11; 109, 110, 111) within the housing (2, 102) itself,
said water inlet occurring through a common opening (3, 103) of the housing (2, 102)
being arranged above the inlet of said areas (9, 10, 11; 109, 110, 111), said mould
(1, 101) being placed with its opening (3, 103) on the top and presenting its minimum
encumbrance size in a horizontal position during its filling;
b) rotation of the mould (1, 101) in order to cause a flow of the water introduced
in the housing (2, 102) to all sockets (7, 107) of the provided arrays (4, 5, 6; 104,
105, 106);
c) location of the arrays (1, 101) in the refrigerating cabinet.
9. Method for forming ice cubes, according to claim 8, characterized in that it provides that when said sockets (7) are filled with water, they can be almost
completely filled.
10. Method for forming ice cubes, according to claim 8,
characterized in that it provides:
i) filling of the mould (101) in such a position to have the minimum encumbrance size
in vertical;
ii) lifting the mould (101) until the minimum encumbrance size reaches an horizontal
position;
iii) steps b) and c).
11. Mould for forming ice cubes of the type:
- having a plurality of sockets apt to be filled with water,
- presenting a minimum encumbrance size substantially of the same width of said sockets
(7),
- and being suitable to be arranged within a refrigerating cabinet so as to have said
minimum encumbrance size protruding inside the cabinet, to obtain solidification of
the water contained in the sockets (7), characterized in that said mould (1, 101) consists of a closed housing (2, 102) being internally hollow
and provided with common water inlet means (3, 103).
12. Mould for forming ice cubes, according to claim 11, characterized in that said sockets (7) are arranged in a way that in use said sockets (7) can be almost
completely filled with water.
13. Mould for forming ice cubes, according to claim 11, characterized in that at least two arrays (4, 5, 6; 104, 105, 106) of sockets (7, 107) are provided within
said housing (2, 102), said arrays (4, 5, 6; 104, 105, 106) being arranged one on
top of the other when said mould (1, 101) is arranged in said compartment, where in
particular said arrays (4, 5, 6; 104, 105, 106) of sockets (7, 107) define distinct
areas (9, 10, 11; 109, 110, 111) within said housing (2, 102), at least some of said
areas (9, 10, 11; 109, 110, 111) being intercommunicating through at least a calibrated
passageway (12, 112).
14. Mould for forming ice cubes, according to claim 13, characterized in that said housing (2, 102) is equipped with means (20, 120) for indicating the maximum
water volume to be let in.
15. Mould for forming ice cubes, according to at least one of the previous claims, characterized in that said mould (1,101) is manufactured in moulded or blow-moulded plastic material, or
in metal material, and in particular is obtained by joining two movable half-elements.
16. Mould for forming ice cubes according to at least one of the previous claims, characterized in that it has a pedestal for its arrangement within the refrigerating cabinet.
17. Mould for forming ice cubes, according to at least one of the previous claims, characterized in that said mould (1,101) has at least one hole (120) suitable for allowing the overflow
of the water when this latter reaches the maximum level required inside said housing
(2, 102).
18. Mould for forming ice cubes, according to at least one of the previous claims, characterized in that said sockets (7, 107) are separated between them by partition walls (8, 108), which
are provided with levelling depressions (15, 115).
1. Kühlschrank, der ein Abteil umfasst, innerhalb dessen mindestens eine Form zum Bilden
von Eiswürfeln angeordnet sein kann, wobei die Form:
- eine Mehrzahl von Aushöhlungen (7) aufweist, die geeignet sind, um mit Wasser befüllt
zu werden,
- eine minimale. Hindernisgröße aufweist, die im Wesentlichen dieselbe Breite wie
die Aushöhlungen (7) besitzt;
- und diese in dem Abteil des Kühlschranks angeordnet ist, um die minimale Hindernisgröße
aufzuweisen, die in das Gehäuse hineinragt,
dadurch gekennzeichnet, dass die Form (1, 101) aus einem geschlossenen Gehäuse (2, 102) besteht, das in seinem
Inneren einen hohlen Zustand aufweist und mit gemeinsamen Wasser-Einlassmitteln (3,
103) ausgestattet ist.
2. Kühlschrank nach Anspruch 1, dadurch gekennzeichnet, dass das Abteil eine Tür (17) aufweist, wobei eine oder mehrere Aufnahmevorrichtungen
(18) ausgebildet sind, um eine oder mehrere der Formen (1, 101) zu definieren, und/oder
für mindestens eine der Formen (1, 101) Führungen und/oder Haken aufweist.
3. Kühlschrank nach Anspruch 1, dadurch gekennzeichnet, dass die Aushöhlungen (7) in einer Weise angeordnet sind, dass bei der Verwendung die
Aushöhlungen (7) nahezu vollständig mit Wasser befüllt werden können.
4. Kühlschrank nach Anspruch 1, dadurch gekennzeichnet, dass in dem Gehäuse (2, 102) mindestens zwei Anordnungen (4, 5, 6; 104, 105, 106) von
Aushöhlungen (7, 107) vorgesehen sind, wobei die Anordnungen (4, 5, 6; 104, 105, 106)
einen übereinander angeordneten Zustand aufweisen, wenn die Form (1, 101) in dem Abteil
eingerichtet ist.
5. Kühlschrank nach Anspruch 4, dadurch gekennzeichnet, dass die Anordnungen (4, 5, 6; 104, 105, 106) von Aushöhlungen (7, 107) getrennte Bereiche
(9, 10, 11; 109, 110, 111 ) innerhalb des Gehäuses (2, 102) ausbilden, wobei mindestens
einige der Bereiche (9, 10, 11; 109, 110, 111) insbesondere durch mindestens einen
kalibrierten Durchgang (12, 112) miteinander in Verbindung stehen.
6. Kühlschrank nach Anspruch 1, dadurch gekennzeichnet, dass das Gehäuse (2, 102) mit Mitteln (20, 120) zum Anzeigen der Höchstmenge an Wasser,
welches eingelassen werden kann, ausgestattet ist.
7. 'Kühlschrank nach mindestens einem der vorhergehenden Ansprüche, dadurch gekennzeichnet, dass die Form (1, 101) mindestens eine Öffnung (3, 103) aufweist, deren Gestalt für die
Austeilung von Eiswürfeln von den Aushöhlungen (7, 107) aus dem Gehäuse (2) heraus
tauglich ist.
8. Verfahren zum Bilden von Eiswürfeln, das eine Form (1, 101) zum Bilden von Eiswürfeln
verwendet, die mit Wasser gefüllt und dann in einem Kühlschrank untergebracht wird,
um das Festwerden von Wasser zu veranlassen,
dadurch gekennzeichnet, dass es die folgenden Schritte vorsieht:
a) Einleiten von Wasser in eine Form (1, 101), welche aus einem in seinem Inneren
hohlen geschlossenen Gehäuse (2, 102) besteht, das Anordnungen (4, 5, 6; 104, 105,
106) von Aushöhlungen (7, 107) enthält, die getrennte Bereiche (9, 10, 11; 109, 110,
111) innerhalb des Gehäuses (2, 102) selbst ausbilden, wobei der Wassereinlass durch
eine gemeinsame Öffnung (3, 103) des Gehäuses (2, 102) erfolgt, die über dem Einlass
der Bereiche (9, 10, 11; 109, 110, 111) angeordnet ist, wobei die Form (1, 101) mit
ihrer Öffnung (3, 103) obenauf untergebracht ist und während des Füllvorgangs ihre
minimale Hindernisgröße in einer horizontalen Position aufweist;
b) Drehen der Form (1, 101), um ein Fließen des Wassers, welches in das Gehäuse (2,
102) eingeleitet wird, zu allen Aushöhlungen (7, 107) der ausgebildeten Anordnungen
(4, 5, 6; 104, 105, 106) zu verursachen;
c) Unterbringen der Form (1, 101) in dem Kühlschrank.
9. Verfahren zum Bilden von Eiswürfeln nach Anspruch 8, dadurch gekennzeichnet, dass es vorsieht, dass wenn die Aushöhlungen (7) mit Wasser gefüllt sind, diese nahezu
vollständig gefüllt sein können.
10. Verfahren zum Bilden von Eiswürfeln nach Anspruch 8,
dadurch gekennzeichnet, dass es folgendes vorsieht:
i) Füllen der Form (101) in einer solchen Position, um die Ausdehnung mit minimaler
Behinderung in der Vertikalen zu erhalten;
ii) Anheben der Form (101), bis die Ausdehnung mit minimaler Behinderung eine horizontale
Position erreicht;
iii) Schritte b) und c).
11. Form zum Bilden von Eiswürfeln, wobei der Typ
- eine Mehrzahl von Aushöhlungen aufweist, die geeignet sind, um mit Wasser befüllt
zu werden,
- eine minimale Hindernisgröße aufweist, die im Wesentlichen dieselbe Breite wie die
Aushöhlungen (7) besitzt;
- und der passend ist, um in einem Kühlschrank angeordnet zu sein, um die minimale
Hindernisgröße aufzuweisen, die in den Kühlschrank hineinragt, um ein Festwerden des
Wassers zu erzielen, das in den Aushöhlungen (7) enthalten ist, dadurch gekennzeichnet, dass die Form (1, 101) aus einem geschlossenen Gehäuse (2, 102) besteht, das in seinem
Inneren einen hohlen Zustand aufweist und mit gemeinsamen Wassereinlass-Mitteln (3,
103) ausgestattet ist.
12. Form zum Bilden von Eiswürfeln nach Anspruch 11, dadurch gekennzeichnet, dass die Aushöhlungen (7) in einer Weise angeordnet sind, dass bei der Verwendung die
Aushöhlungen (7) nahezu vollständig mit Wasser befüllt werden können.
13. Form zum Bilden von Eiswürfeln nach Anspruch 11, dadurch gekennzeichnet, dass mindestens zwei Anordnungen (4, 5, 6; 104, 105, 106) von Aushöhlungen (7, 107) in
dem Gehäuse (2, 102) vorgesehen sind, wobei die Anordnungen (4, 5, 6; 104, 105, 106)
einen übereinander angeordneten Zustand aufweisen, wenn die Form (1, 101) in dem Abteil
eingerichtet ist, in dem insbesondere die Anordnungen (4, 5, 6; 104, 105, 106) von
Aushöhlungen (7, 107) unterschiedliche Bereiche (9, 10, 11; 109, 110, 111) innerhalb
des Gehäuses (2, 102) ausbilden, wobei mindestens einige der Bereiche (9, 10, 11;
109, 110; 111) durch mindestens einen kalibrierten Durchgang (12, 112) miteinander
in Verbindung stehen.
14. Form zum Bilden von Eiswürfeln nach Anspruch 13, dadurch gekennzeichnet, dass das Gehäuse (2, 102) mit Mitteln (20, 120) zum Anzeigen der Höchstmenge an Wasser,
welches eingelassen werden kann, ausgestattet ist.
15. Form zum Bilden von Eiswürfeln nach mindestens einem der vorhergehenden Ansprüche,
dadurch gekennzeichnet, dass die Form (1, 101) aus geformten oder geblasenem Plastik oder aus Metall gefertigt
ist, und insbesondere durch das Zusammenfügen zweier beweglicher Halbelemente hergestellt
wird.
16. Form zum Bilden von Eiswürfeln nach mindestens einem der vorhergehenden Ansprüche,
dadurch gekennzeichnet, dass sie für ihre Anordnung innerhalb des Kühlschranks einen Sockel aufweist.
17. Form zum Bilden von Eiswürfeln nach mindestens einem der Vorhergehenden Ansprüche,
dadurch gekennzeichnet, dass die Form (1, 101) mindestens ein Loch (120) aufweist, das geeignet ist, das Überlaufen
des Wassers zu gestatten, wenn dieses den erforderlichen Höchststand innerhalb des
Gehäuses (2, 102) erreicht:
18. Form zum Bilden von Eiswürfeln nach mindestens einem der vorhergehenden Ansprüche,
dadurch gekennzeichnet, dass die Aushöhlungen (7, 107) durch Trennwände (8, 108) zwischen ihnen voneinander getrennt
sind, wobei die Trennwände (8, 108) mit niveauregulierenden Vertiefungen (15, 115)
ausgestattet sind.
1. Armoire réfrigérante, comportant un compartiment à l'intérieur duquel au moins un
moule pour la formation de glaçons peut être disposé, ledit moule :
- ayant une multiplicité de cuvettes (7) pouvant être remplies avec de l'eau;
- présentant une taille d'encombrement minimum sensiblement de la même largeur que
lesdites cuvettes (7);
- et étant disposé à l'intérieur dudit compartiment de ladite armoire réfrigérante
de façon à avoir ladite taille d'encombrement minimum qui dépasse à l'intérieur de
ladite armoire,
caractérisée en ce que ledit moule (1, 101) se compose d'un boîtier fermé (2, 102) qui est creux à l'intérieur
et pourvu de moyens d'entrée d'eau communs (3, 103).
2. Armoire réfrigérante selon la revendication 1, caractérisée en ce que ledit compartiment a une porte (17) dans laquelle un ou plusieurs sièges (18) sont
définis afin de disposer un ou plusieurs desdits moules (1, 101), et/ou des guides
et/ou des crochets pour au moins un desdits moules (1, 101) sont définis.
3. Armoire réfrigérante selon la revendication 1, caractérisée en ce que lesdites cuvettes (7) sont disposées d'une manière telle que, lors de l'utilisation,
lesdites cuvettes (7) peuvent être pratiquement totalement remplies avec de l'eau.
4. Armoire réfrigérante selon la revendication 1, caractérisée en ce que, à l'intérieur dudit boîtier (2, 102), au moins deux rangées (4, 5, 6; 104, 105,
106) de cuvettes (7, 107) sont prévues, lesdites rangées (4, 5, 6; 104, 105, 106)
étant l'une au-dessus de l'autre lorsque ledit moule (1, 101) est disposé dans ledit
compartiment.
5. Armoire réfrigérante selon la revendication 4, caractérisée en ce que lesdites rangées (4, 5, 6; 104, 105, 106) de cuvettes (7, 107) définissent des zones
séparées (9, 10, 11; 109, 110, 111) à l'intérieur dudit boîtier (2, 102), au moins
certaines desdites zones (9, 10, 11; 109, 110, 111) étant en intercommunication particulière
à travers au moins un passage calibré (12, 112).
6. Armoire réfrigérante selon la revendication 1, caractérisée en ce que ledit boîtier (2, 102) est équipé de moyens (20, 120) destinés à indiquer le volume
d'eau maximum devant être admis.
7. Armoire réfrigérante selon au moins une des revendications précédentes, caractérisée en ce que ledit moule (1, 101) a au moins une ouverture (3, 103), dont la configuration est
adaptée à la distribution de glaçons provenant desdites cuvettes (7) à l'extérieur
dudit boîtier (2).
8. Procédé de formation de glaçons, qui utilise un moule (1, 101) pour la formation de
glaçons qui est rempli avec de l'eau et ensuite logé à l'intérieur d'une armoire réfrigérante
afin de provoquer la solidification de l'eau,
caractérisé en ce qu'il prévoit les étapes suivantes :
a) introduction d'eau dans un moule (1, 101) se composant d'un boîtier fermé intérieur
creux (2, 102) qui contient des rangées (4, 5, 6; 104, 105, 106) de cuvettes (7, 107)
définissant des zones séparées (9, 10, 11; 109, 110, 111) à l'intérieur du boîtier
(2, 102) lui-même, ladite entrée d'eau se fait à travers une ouverture commune (3,
103) du boîtier (2, 102) qui est disposée au-dessus de l'entrée desdites zones (9,
10, 11; 109, 110, 111), ledit moule (1, 101) étant placé avec son ouverture (3, 103)
sur le dessus et présentant sa taille d'encombrement minimum dans une position horizontale
pendant son remplissage;
b) rotation du moule (1, 101) afin de provoquer un écoulement de l'eau introduite
dans le boîtier (2, 102) vers toutes les cuvettes (7, 107) des rangées prévues (4,
5, 6; 104, 105, 106);
c) mise en place des rangées (1, 101) dans l'armoire réfrigérante.
9. Procédé de formation de glaçons selon la revendication 8, caractérisé en ce qu'il prévoit que, lorsque lesdites cuvettes (7) sont remplies d'eau, elles peuvent être
pratiquement totalement remplies.
10. Procédé de formation de glaçons selon la revendication 8,
caractérisé en ce qu'il prévoit :
i) le remplissage du moule (101) dans une position qui permet d'avoir la taille d'encombrement
minimum en vertical;
ii) le soulèvement du moule (101) jusqu'à ce que la taille d'encombrement minimum
atteigne une position horizontale;
iii) étapes b) et c).
11. Moule pour la formation de glaçons du type :
- ayant une multiplicité de cuvettes pouvant être remplies avec de l'eau;
- présentant une taille d'encombrement minimum sensiblement de la même largeur que
lesdites cuvettes (7);
- et qui peut être disposé à l'intérieur d'une armoire réfrigérante de façon à avoir
ladite taille d'encombrement minimum qui dépasse à l'intérieur de ladite armoire,
afin d'obtenir la solidification de l'eau contenue dans les cuvettes (7), caractérisé en ce que ledit moule (1, 101) se compose d'un boîtier fermé (2, 102) qui est creux à l'intérieur
et pourvu de moyens d'entrée d'eau communs (3, 103).
12. Moule pour la formation de glaçons selon la revendication 11, caractérisé en ce que lesdites cuvettes (7) sont disposées d'une manière telle que, lors de l'utilisation,
lesdites cuvettes (7) peuvent être pratiquement totalement remplies avec de l'eau.
13. Moule pour la formation de glaçons selon la revendication 11, caractérisé en ce qu'au moins deux rangées (4, 5, 6; 104, 105, 106) de cuvettes (7, 107) sont prévues à
l'intérieur dudit boîtier (2, 102), lesdites rangées (4, 5, 6; 104, 105, 106) étant
disposées l'une au-dessus de l'autre lorsque ledit moule (1, 101) est disposé dans
ledit compartiment, dans lequel en particulier lesdites rangées (4, 5, 6; 104, 105,
106) de cuvettes (7, 107) définissent des zones distinctes (9, 10, 11; 109, 110, 111)
à l'intérieur dudit boîtier (2, 102), au moins certaines desdites zones (9, 10, 11;
109, 110, 111) étant en intercommunication à travers au moins un passage calibré (12,
112).
14. Moule pour la formation de glaçons selon la revendication 13, caractérisé en ce que ledit boîtier (2, 102) est équipé de moyens (20, 120) destinés à indiquer le volume
d'eau maximum devant être admis.
15. Moule pour la formation de glaçons selon au moins une des revendications précédentes,
caractérisé en ce que ledit moule (1, 101) est fabriqué en matière plastique moulée ou moulée par soufflage,
en en matière métallique, en particulier est obtenu en reliant deux moitiés d'éléments
mobiles.
16. Moule pour la formation de glaçons selon au moins une des revendications précédentes,
caractérisé en ce qu'il a un pied pour sa mise en place à l'intérieur de l'armoire réfrigérante.
17. Moule pour la formation de glaçons selon au moins une des revendications précédentes,
caractérisé en ce que ledit moule (1, 101) a au moins un trou (120) prévu pour permettre le débordement
de l'eau quand cette dernière atteint le niveau maximum exigé à l'intérieur dudit
boîtier (2, 102).
18. Moule pour la formation de glaçons selon au moins une des revendications précédentes,
caractérisé en ce que lesdites cuvettes (7, 107) sont séparées l'une de l'autre par des parois de séparation
(8, 108), qui sont pourvues de dépressions de mise à niveau.