Coving assembly

Abstract

There is provided a coving assembly configured to be fitted to a wall or ceiling, the coving assembly comprising a coving member, a bracket configured to be mounted to the wall, a fixing point, wherein the coving member and bracket are connectable to one another at the fixing point, and a securing member configured to engage the fixing point to resist disconnection of the bracket and coving member, thereby securing the connection between the bracket and coving member.

Description

[0001] COVING ASSEMBLY

[0002] Field

[0003] The invention relates to a coving assembly configured to be fitted to a wall or ceiling and a method of fitting a coving assembly.

[0004] Background to the Invention

[0005] A coving, sometimes referred to as a cornice, or a crown moulding, is a type of architectural moulding that is used to cover the join between a ceiling and a wall. A coving is typically defined by its projection, its drop or height and its length. Traditionally a coving is a curved or shaped strip of wood, but a coving may be made of a variety of materials (e.g., plaster, thermoplastic, etc.).

[0006] Advantageously, a coving helps to seal joints in a building structure and / or serve as decoration. However, maintaining the coving in its installed arrangement (e.g. as fitted or as assembled) is difficult. For example, at corners of walls and ceilings, covings are typically arranged adjacent to one another and abut one another along a respective edge. Resultingly, each coving must be fitted carefully to avoid inadvertent uninstallation of an already installed coving. This is difficult if the installed adjacent coving is not tightly secured to the building structure. Similarly, other items such as furniture or ladders may abut an installed coving during placement, which may similarly result In Inadvertent uninstallation of the coving. Contrastingly, there are scenarios in which tightly secured coving is disadvantageous. For example, when refurbishing a room in which coving covers fixtures, such as piping and wiring, it may be necessary to repeatedly uninstall and reinstall said coving. This is difficult where the coving Is tightly secured.

[0007] Hence, there Is a need for a coving that can be secured against accidental uninstallation. There is also a need for a coving that facilitates uninstallation after the coving has been fitted, for example to provide access to covered fixtures. Overall, there is a desire to provide a coving that is secured against undesired uninstallation and which is easily uninstalled, according to the needs of the user.

[0008] Summary of the Invention

[0009] It is one aim of the present invention, amongst others, to provide a coving assembly which at least partially obviates or mitigates at least some of the disadvantages of the prior art, whether identified herein or elsewhere, or to provide an alternative approach. For instance, it is an aim of embodiments of the invention to provide a coving that is secured against accidental uninstallation. For instance, it is an aim of embodiments of the invention to provide a coving also easily uninstalled when desired. For instance, it is an aim of the invention to provide a coving assembly that enables fixtures to be accessed retrospectively.

[0010] According to the present invention there is provided a coving assembly as set forth in the appended claims. Other features of the invention will be apparent from the dependent claims, and the description that follows.

[0011] According to a first aspect, there is provided a coving assembly configured to be fitted to a wall or ceiling, the coving assembly comprising a coving member, a bracket configured to be mounted to the wall, a fixing point, wherein the coving member and bracket are connectable to one another at the fixing point, and a securing member configured to engage the fixing point to resist disconnection of the bracket and coving member, thereby securing the connection between the bracket and coving member.

[0012] In one example, the fixing point defines a receiving volume for receiving the securing member.

[0013] In one example, the receiving volume is a longitudinally extending volume.

[0014] In one example, one or more sections of the securing member are insertable into the receiving volume of the fixing point, thereby securing the connection between the bracket and coving member.

[0015] In one example, the fixing point is configured to deform to thereby connect and / or disconnect the coving member and bracket.

[0016] In one example, the securing member is configured to resist disconnection of the bracket and coving member by restricting deformation of the fixing point.

[0017] In one example, the securing member comprises a longitudinally extending body.

[0018] In one example, the securing member comprises a cylindrical section.

[0019] In one example, the securing member comprises a plurality of cylindrical sections along its length, wherein a first cylindrical section of the plurality of cylindrical sections comprises a first diameter, and a second cylindrical section of the plurality of cylindrical sections comprises a second diameter, the first diameter being greater than the second diameter.

[0020] In one example, the fixing point provides a hinge, thereby allowing rotation of the coving member relative to the bracket. In one example, the fixing point comprises a first connection member provided by the coving member and a second connection member provided by the bracket, the first and second connection members comprising complementary connection means for selectively connecting the coving member and bracket.

[0021] In one example, the first or second connection member is configured to be insertable into the other of the first and second connection member.

[0022] In one example, at least one of the first and second connection members comprises a C-shaped crosssection.

[0023] In one example, the bracket Is configured to be slidably mounted onto the wall.

[0024] In one example, the coving assembly Is configurable to a connected configuration, wherein the coving member and bracket are connected to one another at the fixing point, and a secured configuration, wherein the coving member and bracket are connected to one another at the fixing point and the securing member Is engaged with the fixing point.

[0025] Features of the above aspects may be combined, or incorporated into each other, as desired or as appropriate. In particular, the structure formation apparatus of the second aspect may comprise any or all of the features of the first aspect, as desired or as appropriate. Furthermore, the method of the third aspect may comprise any or all of the features of the first aspect and / or second aspect, as desired or as appropriate.

[0026] Other preferred and advantageous features of the invention will be apparent from the following description.

[0027] Brief Description of the Drawings

[0028] For a better understanding of the invention, and to show how exemplary embodiments of the same may be brought into effect, reference will be made, by way of example only, to the accompanying diagrammatic Figures, in which:

[0029] Figure 1 A schematically depicts a cross-sectional view of a coving member;

[0030] Figure 1 B schematically depicts a front view of two brackets and two securing members;

[0031] Figure 1C schematically depicts a perspective view of a securing member; Figure 2 schematically depicts a cross-sectional view of a coving assembly in a secured configuration;

[0032] Figure 3A schematically depicts a perspective view of a coving assembly;

[0033] Figure 3B schematically depicts a perspective view of a coving assembly in the secured configuration;

[0034] Figure 3C schematically depicts a back view of a coving assembly in the secured configuration; and

[0035] Figure 4 schematically depicts a method of securing a coving assembly.

[0036] Detailed Description

[0037] In overview, the coving assembly that is disclosed herein is securable against uninstallation, yet is easy to uninstall when required. Repeated uninstallation or installation, including for access to things covered by the coving member 110, is made easier and safer.

[0038] Figure 1A depicts a cross-sectional view of a coving member 110 for use in a coving assembly 100. The coving member 110 is configured to be connected (e.g., fixed) to a bracket 120 of the coving assembly. The bracket 120 is shown in Figure 1 B, and is to be referred to in combination with Figure 1A.

[0039] The coving member 110 comprises a longitudinally extending body. The body comprises an interior surface 112 and an exterior surface 114. The exterior surface 114 is the surface of the coving member 110 that faces outwards and is visible to people in the room when the coving assembly 100 is assembled and fitted to the wall and / or ceiling. Typically, the exterior surface 114 comprises one or more curved surfaces. In Figure 1A, the exterior surface 114 has a concave profile. The interior surface 112 is opposite the exterior surface 114 and is the surface of the coving member 110 that is not visible to people in the room when the coving assembly 100 is assembled and fitted to the wall and / or ceiling.

[0040] Preferably, the coving member 110 comprises a thermally conductive material (e.g., a metal, such as aluminium), because such a material enables heat to be conducted efficiently from any fixtures (such as hot water pipes, or electrical heaters) to the room via the coving member 110. As a result of heating and cooling, the coving member 110 expands and contracts respectively. Thermal expansion and / or contraction is also referred to as thermal flowering or blossoming in the art.

[0041] In Figure 1A, the interior surface 112 comprises holders 113 dimensioned to hold fixtures (i.e., piping, wires, cables and the alike) in the internal volume of the fitted coving assembly. The holders 113 are typically substantially U-shaped, as shown in Figure 1A. In some examples, the diameter of the holders 113 is adjustable. The holders 113 may comprise the same or different material as the covering member 110 and the bracket 120, respectively. Advantageously, the holders 113 can be used to separate different fixtures within the coving assembly.

[0042] In some examples, the coving assembly 100 may comprise an attachment site 117 at an end of the coving member 110 for hanging the coving member 110 by a connector (e.g., cable, braided wire, cord). For instance, the coving member 110 may be hung from a bracket 120 by a connector at an attachment site 115. In the example shown in Figures 1A, the attachment site 117 is at each end of the coving member 100. Advantageously, the coving assembly 100 may be easily fitted by a single person, because one end of the coving member 110 is safely held in place by the connector while the other end of the coving member 100 is attached to the bracket 120.

[0043] Preferably, the coving member 110 is symmetrical about an axis running along its length (i.e., its longitudinal axis). In other words, the arrangement of holders 113 and attachment sites 115 is preferably symmetrical about the longitudinal axis of the coving member 110. By having identical features either side of this centre line, the coving assembly can be fitted irrespective of its orientation about its longitudinal axis. The longitudinal axis Y of the coving member 110 is depicted in Figures 3A 3B and 3C.

[0044] Alternatively or additionally, having identical features either side of this centre line, may be defined or described as functionally symmetrical. Being functionally symmetric means that, more generally, the coving assembly can be fitted and used irrespective of its orientation about its longitudinal axis. For example, whilst not necessarily exactly dimensionally symmetric, the arrangement of features either side of the centre line (e.g., holders 113, attachment sites 115, etc.) means that, the coving assembly can be fitted and used irrespective of its orientation about its longitudinal axis.

[0045] The coving member 110 of Figure 1A is configured to be connected to the bracket 120. Connection of the coving member 110 and bracket 120 occurs at one or more fixing points 130, and may occur by means of a snap-fit connection. Hereinafter, the coving assembly 100 being in a connected or assembled configuration corresponds to the coving member 110 and bracket 120 being connected to one another at one or more fixing points 130.

[0046] The coving assembly 100 in the connected configuration may be disconnected by movement of the coving member 110 away from the bracket 120. At times, this disconnection is desirable, for example, where repeated access to fixtures and / or the ceiling / wall juncture is required. At other times, this disconnect is undesirable, for example, where an installed coving member 110 is knocked or abutted by another item. Advantageously, the coving assembly 100 disclosed herein is configurable to resist disconnection as required, by engagement of a securing member 140 at one or more fixing points 130. In this manner, the coving assembly 100 can be transformed from being merely connected, to being at least more securely connected at one or more fixing points 130. The fixing point 130 comprises a first connection member 130a provided by the coving member 110 and a second connection member 130b provided by the bracket 120. The fixing point 130 is a structure formed by connection of the first and second connection members 130a,b. The first and second connection members 130a,b comprise complementary connection means. For example, the first and second connection members 130a,b may comprise interconnecting structures and / or the first or second connection members 130a,b is configured to be insertable into the other. For example, one or both of the first and second connection members 130a,b may comprise a socket (e.g., a form having a C- shaped profile, and / or which might be referred to as a clip) configured to receive the other connection member 130a,b. Advantageously, when a connection member 130a,b is insertable into another coving member 130a,b, the size of the fixing point 130 is minimised, and the overall connection is simple.

[0047] The first and second connection members 130a,b may comprise the same, or a different, material to the covering member 110 and the bracket 120 respectively.

[0048] In Figure 1 A, the coving member 110 shown in Figure 1 A comprises two first connection members 130a on its interior surface 112. The connection members 130a are arranged towards the respective longitudinal edges of the coving member 110. Thus, the fixing points 130 are arranged towards the respective longitudinal edges of the coving assembly 100. Advantageously, the first and second connection members 130a,b are configured to selectively connect the coving member 110 and bracket 120 to one another, thereby facilitating connection and disconnection of the coving member 110 from the bracket 120.

[0049] According to embodiments of the invention, the advantages are even better, or more readily achieved, by use of a securing member that is configured to engage the fixing point 130 to resist disconnection of the bracket 120 and coving member 120, thereby better securing the connection between the bracket 120 and coving member 110. This will be discussed in more detail below, particularly in reference to Figures 2, 3A, 3B, 3C and 4 which depict the whole coving assembly 100.

[0050] In other examples, the coving member 110 comprises a single first connection member 130a or more than two first connection members 130a on its interior surface. Two members 130a may provide more installation options, freedom, or provide a more robust connection (if both members are used).

[0051] In some examples, the first and second connection members 130a,b have the same cross-sectional profile. The first and second connection members 130a,b may comprise protrusions having a the C- shaped side profile, as shown in the coving member 110 of Figure 1A. For example, first and second connection members 130a,b may comprise a C-shaped clip (which might be referred to as a socket). In some examples, the first and second connection members 130a,b may comprise a series (i.e., at least 3) of C-shaped clips extending along the longitudinal axis of the coving member 110. The C-shaped clips may be separated from one another along the longitudinal axis of the coving member 110. In some examples, a single connection member 130a,b may comprise a series of C-shaped clips. In other examples, a single connection member 130a,b may comprise a single C-shaped clip.

[0052] In other examples, the first and second connection members 130a,b have differently shaped cross- sectional profiles. For instance, the first connection member 130a may comprise a protrusion and the second connection member 130b may comprise a socket (e.g., a recess). Alternatively, the first connection member 130a may comprise a socket and the second connection member 130b may comprise a protrusion. Typically, and as discussed above, it will be advantageous for one member to fit inside, or extend around, the other member, when connected.

[0053] In some examples, the fixing point 130 is configured to deform to thereby connect and / or disconnect the coving member 110 and bracket 120. That is, in order for the first and second connection members 130a, b to connect or disconnect, deformation of one or both of the first and second connection members 130a,b occurs. Advantageously, the threshold force required to deform the fixing point 130 provides some resistance to the disconnection of the coving member 110 and bracket 120, thereby improving stability of the coving assembly in the connected configuration 100. Further advantageously, the size of the fixing point 130 is minimised.

[0054] As an example of connection / disconnection by deformation, if a connection member 130a,b has a C- shaped cross-section, the C-shaped profile widens to accommodate insertion of the other connection member 130a,b. Conversely, if a C-shaped connection member 130a,b is to be inserted into the other connection member 130a,b, the C-shaped profile narrows to facilitate its insertion into the other connection member 130a,b. Advantageously, first and / or second connection members 130a,b with C- shaped cross-sectional profiles facilitate insertion for connection and also provide resistance to disconnection.

[0055] Preferably, the first and / or second connection members 130a,b of the fixing point 130 are configured to be elastically deformable. Advantageously, this enables easy, repeated connection and disconnection of the coving member 110 and bracket 120.

[0056] Both Figure 1 B and Figures 3A, 3B and 3C depict a view of adjacent brackets 120a, b for use with the coving member 110 of Figure 1A. Each bracket 120a, b is configured to be installed (e.g., mounted) on at least one of a wall and a ceiling. For example, a first bracket 120 may be arranged for installation on a wall, and the second bracket 120 may be arranged substantially perpendicular thereto for installation on a ceiling. Advantageously, a plurality of brackets 120 are arrangeable along the length of the coving member as required. Additionally, the geometry of each bracket 120a, b advantageously means that each bracket can be pushed up to the ceiling / wall juncture.

[0057] In Figures 1 B and 3A, the dashed line X outlines an example boundary between the brackets 120a, b. As shown in Figure 3A, the dashed line X crosses the longitudinal axis of the coving member, which is shown by dashed line Y. Advantageously the brackets 120a,b may be arranged differently, according to the profile of the wall / ceiling juncture. For example, the brackets 120 are separable and are arrangeable at different orientations relative to one another.

[0058] As shown in Figure 3A, 3B and 3C, the brackets 120a,b are adjacent to one another along the longitudinal axis of the coving member 110. The brackets 120a,b are arrange substantially perpendicular to one another. In other examples the brackets 120a,b may be separated by a distance along the longitudinal axis of the coving member 110. In yet other examples, the brackets 120a,b may partially or fully overlap In their position along the longitudinal axis of the coving member 110. That Is, the brackets 120a,b may be arranged In an L-shaped configuration.

[0059] If the coving assembly 100 is to be fitted to the wall and the celling, a bracket 120 comprising two arms Is used. This may be an Integral bracket structure 120 having two substantially perpendicular arms, or two separable brackets 120a,b arranged In an L-shaped configuration, with each bracket 120a,b arranged substantially perpendicular to the other. Fitting to the wall and celling may advantageously be more secure than fitting to one of the wall and celling. I

[0060] Typically, a bracket 120 is mounted by a fixing 122 (e.g., a screw). The body of the bracket 120 comprises one or more (e.g. elongate) apertures 124 configured to receive the fixing 122 for mounting of the bracket 120 to the wall. Preferably, the bracket 120 is a slidable bracket capable of being displaced along the wall or ceiling to which it is mounted. Advantageously, the slidable bracket 120 Is moveable after It Is secured to the wall or celling. Advantageously, the slidable bracket 120 enables retention of the connection at the fixing point 130 during the thermal expansion and contraction of the coving member 110.

[0061] One or more of the apertures 124 comprises an opening that extends in a transverse direction. The transverse direction Is a direction perpendicular to the longitudinal axis of the coving member 110 when the coving assembly 100 is arranged in the connected or secured configuration. A transverse aperture 124 enables displacement of the fixing point 130 in the transverse direction. This is advantageous because during thermal expansion and contraction, the longitudinal edges of the coving member move along the respective wall or ceiling in the transverse directions. As one or more of the fixing points 130 are arranged towards the longitudinal edges of the coving assembly 100, the apertures 124 extending in the transverse direction advantageously enabled movement in the transverse direction, thereby resisting disconnection at the fixing point 130. Preferably, the bracket 120 comprises thermoplastic, because thermoplastic is advantageously light and strong.

[0062] Similarly to the coving member 110, the bracket 120 may be spatially / dimensionally, and / or functionally symmetric.

[0063] By connecting the coving member 110 to the bracket 120 to at one or more of the fixing points 130 (i.e., by arranging the coving assembly 100 in the connected configuration) movement of the coving member 110 away from the bracket 120 (i.e. disconnection) is inhibited only to an extent. Where the coving assembly 100 is abutted by other items, such as adjacent coving members 110, tools, or items of furniture, there remains some risk of inadvertent (e.g. unintentional) disconnection of the coving member 110 from the bracket 120. The coving assembly 100 disclosed herein resists such disconnection by providing a connected configuration that is securable against the risk of (i.e. resists) disconnection by use of a securing member 140. Once engaged with the securing member 140, the coving assembly 100 is changed from the connected configuration to the secured configuration.

[0064] Figure 1C depicts a perspective view of a securing member 140 for securing the coving member of Figure 1A to the bracket of Figure 1 B. The securing member 140 is configured to engage the fixing point 130 to resist disconnection of the bracket and coving member. As described above, the fixing point 130 is a structure formed by connection of the first and second connection members 130a,b of the coving member 110 and bracket 120 respectively. Therefore, the securing member 140 is configured to engage with the fixing point 130 at least when the coving assembly is in the connected configuration.

[0065] The securing member 140 has a longitudinally extending body. For example, the securing member 140 may be a pin. Advantageously, the securing member 110 being longitudinally extending means that the securing of the coving assembly 100 can extend along the entire length of the coving member 110, or a portion of the length of the coving member 110, according to the desired level of securing. Further advantageously, a longitudinally extending securing member 140 is combinable with a longitudinally extending receiving volume, as described below.

[0066] In some examples, the securing member 140 has one or more sections extending along the length (i.e., the longitudinal axis) of the securing member 140. The one or more sections may have a cylindrical, conical, cuboid, and / or triangular form. Advantageously, where at least on section is a cylindrical section, the securing member 140 engaged with the fixing point 130 permits rotation of the one of the first and second connection members 130a,b relative to the other, thereby facilitating a hinge mechanism at the fixing point 130 whilst maintaining a secure connection at the fixing point 130. The hinge mechanism is further described in relation to Figure 2. This shape might also make it easier to align, manipulate or engage the securing member 140 in or in relation to the fixing point 130. The cross-sectional width, measured in a direction perpendicular to the longitudinal axis of the coving member 110, may differ for one or more of the sections. In an example, a first section comprises a first cross-sectional width, and a second section comprises a second cross-sectional width, the first diameter (or extent or width) being greater than the second diameter (or extent or width). Advantageously, the different cross-sectional widths enable the user to vary the resistance of the fixing point 130 to disconnection. In an example, a first section of the securing member 140 is engaged with the fixing point. By displacing the securing member 140 relative to the fixing point 130, a second section having a smaller diameter is engaged with the fixing point.

[0067] Figure 1C depicts a plurality of cylindrical sections 144a,b,c extending along the length (of the securing member 140. One or more of the cylindrical sections 144a, b,c differ in cross-sectional width (i.e., diameter). A first cylindrical section 144a, c comprises a first diameter, and a second cylindrical section 144b of the plurality of cylindrical sections, the first diameter being greater than the second diameter. Advantageously, the different diameters enable the user to vary resistance of the fixing point 130 to disconnection, as described above.

[0068] In some examples, at least one end of the securing member 140 comprises a handle 142. In Figure 1C, the handle 142 is dimensioned to restrict movement of the securing member 140 relative to the first or second connection member 130a,b or relative to the fixing point 130.

[0069] Figure 2 depicts a cross-sectional view of a coving assembly 100 in a secured configuration. Hereinafter, the coving assembly being in a secured configuration corresponds to the coving member 110 and bracket 120 being connected to one another at the fixing point 130, wherein the securing member 140 is engaged with the fixing point 130.

[0070] The fixing point 130 structure defines a receiving volume (e.g. a void, hollow, hole, or depression) for receiving a securing member 140. That is, one or more sections of the securing member 140 are configured to engage the fixing point 130 by insertion into the receiving volume of the fixing point 130. Engagement of the securing member 140 comprises insertion of the securing member 140 into the receiving volume. Insertion of the securing member 140 into the receiving volume of a fixing point 130 when the coving assembly 100 is in the connected configuration secures the connection between the bracket 120 and coving member 110. Advantageously, the receiving volume allows the coving assembly 100 to be secured without increasing the volume of coving assembly 100. The size of the coving assembly 100 is thus minimised.

[0071] In some examples, the coving assembly 100 further comprises a biasing member (e.g., a spring) for retaining the securing member 140 in insertion into the fixing point 130. Advantageously, the coving assembly 100 remains in the secured configuration unless an opposing force is applied to the securing member 140.

[0072] The coving member 110 has a longitudinally extending body for covering a ceiling / wall juncture. In some examples, the receiving volume extends In a direction along (e.g., substantially parallel) to the longitudinal axis of the coving member. In other words, the receiving volume is a longitudinally extending volume. For example, the receiving volume may comprise an aperture, cavity, or bore. One or both ends of the receiving volume provide an opening for insertion of the securing member 140. Advantageously, the longitudinally extending receiving volume can be dimensioned to extend along any length of the longitudinally extending coving member 110. In this manner, the securing of the coving assembly 100 can extend along the entire length of the coving member 110, or a portion of the length of the coving member, according to the desired level of securing. Advantageously, where the longitudinally extending receiving volume extends along the entire length of the coving member 110, the coving member 110 may be cut along the transverse axis (perpendicular to the longitudinal axis of the coving member) to provide coving member 110 portions of certain lengths, each having a longitudinally extending receiving volume. In this manner, the receiving volume Is accessible for engagement with the securing member 140 at each transverse edge of each coving member 110 portion. The transverse edge is the short edge of the coving member 110 that extends substantially perpendicular to the longitudinal edge of the coving member 110.

[0073] The receiving volume is defined by one or both first and second connection members 130a,b forming the fixing point 130. For example, where the first and second connection members 130a,b comprise C- shaped cross-sectional profiles, the receiving volume has a O-shaped cross-sectional profile formed by the interconnected opposing C-shaped connection members 130a,b. Where the one of the first and second connection members 130a,b comprises a protrusion for insertion into the other connection member 130a,b, a longitudinally extending volume of the protrusion (e.g., a longitudinally extending aperture) may define the receiving volume. Advantageously, the longitudinally extending volume can extend along one or more longitudinal sections of the coving assembly 100.

[0074] As disclosed above, the fixing point 130 is configured to deform during connection and / or disconnection of the coving member 110 and bracket 120. As a result, the receiving volume defined by the fixing point 130 deforms during connection and / or disconnection of the coving member 110 and bracket 120. In the secured configuration, the presence of one or more sections of the securing member 140 in the receiving volume restricts deformation of the fixing point 130. For example, where the cross-sectional profile of the securing member 140 conforms to the dimensions of the receiving volume (e.g., the securing member 140 provides a transition fit, or zero clearance fit), the securing member 140 prevents deformation of the fixing point 130. Advantageously, the prevention of deformation of the fixing point 130 prevents the disconnection of the coving member 110 and bracket 120. In some examples, the securing member 140 is differently dimensioned compared to the receiving volume. For example, the securing member 140 may have a smaller cross-sectional profile (e.g. a smaller cross-sectional width) than the receiving volume. For example, the securing member 140 provides a clearance fit. In these examples, deformation of the fixing point 130 occurs until the fixing point 130 contacts securing member 140. At this point, the securing member 140 prevents further deformation of the fixing point 130. In other words, deformation of the fixing point 130 is partly restricted. Advantageously, the size of the securing member 140 is minimised and the securing member 140 is still able to provide a securing effect on insertion into the fixing point 130 of a connected coving assembly 110.

[0075] Advantageously, where the securing member 130 comprises one or more sections having different cross-sectional widths (e.g., different diameters), the degree to which deformation of the fixing point 130 is restricted can be varied by movement (e.g., displacement) of the securing member 140 relative to the fixing point 130.

[0076] In some examples, some of the one or more sections of the securing member 140 have a significantly smaller cross-sectional profile than the receiving volume. This enables sufficient deformation of the fixing point 130 to provide disconnection of the coving member 110 and bracket 120. Advantageously, some of the one or more sections of the securing member 140 are dimensioned to permit disconnection of coving member 110 and bracket 120, whilst one or more other sections of the securing member 140 are dimensioned to resist or prevent disconnection of coving member 110 and bracket 120. Advantageously, a single securing member 140 can be used to permit and / or restrict deformation of the fixing point 130.

[0077] In an example, a first section of the securing member 140 is placeable in the receiving volume of the fixing point 130. The first section is dimensioned to prevent or at least partially restrict deformation of the fixing point 130. By displacing the securing member 140 relative to the fixing point 130 (e.g., by insertion or retraction), a second section having a significantly smaller diameter is placed in the receiving volume of the fixing point 130. The second section is dimensioned to permit sufficient deformation of the fixing point 130 to enable disconnection of the coving member 110 and bracket 120. In this manner, the securing member 140 may be partially displaced within the fixing point 130 to an intermediate position to unsecure the coving assembly 100. The securing member in the intermediate position remains engaged, albeit differently, with the fixing point 130. Advantageously, the securing member 140 need not be disengaged (e.g., fully removed or fully retracted) from the fixing point 130, to facilitate disconnection of the coving member 110 and bracket 120.

[0078] Partial displacement of the securing member 140 is advantageous over the entire removal of the securing member 140 because the size of the unsecured coving assembly 110 is minimised. The operating volume, i.e., the volume required for unsecuring and / or disconnecting the coving assembly 110, is thus minimised. The securing member 140 does not necessarily need to be more rigid than the connection members 130a,b to reduce or prevent deformation. Such reduction or prevention will also be based on the overall shape and dimensions of the combination of the securing member 140 and connection members 130a, b. However, the securing member 140 being formed of a more rigid material or shape than the connection members 130a,b might further add to or improve such reduction or prevention in deformation of the members 130a,b.

[0079] In some examples, the fixing point 130 additionally provides a hinge mechanism for the coving assembly 100. The hinge mechanism is configured to allow rotation of the coving member 110 to expose the interior surface 112. One or more of the fixing points 130 in a coving assembly 100 may provide one or more hinge mechanisms respectively. The hinge mechanism is integral with the fixing point 130, which advantageously means that the coving assembly is less susceptible to breaking during storage and transport due to having fewer protruding parts.

[0080] The hinge mechanism is configured to allow the coving member 110 to be rotated relative to the wall or the ceiling. In the arrangement shown in Figure 2, it may be necessary to decouple (e.g., disconnect or detach) the first and second connection members 130a, b forming a first fixing point 130 in order to allow rotation of the coving member 110 about a second fixing point 130. Advantageously, the hinge mechanism enables access to behind the coving member 110 for installation and / or maintenance of fixtures.

[0081] As the coving member 110 rotates about the hinge mechanism fixing point 130 to expose the interior surface 112 of the coving member 110, interaction between the coving member 110 and the wall / ceiling causes a force to be exerted onto a socket of the coving member 110 forming the hinge mechanism, thereby causing a socket connection member 130a,b to grip a protrusion connection member 130a,b more tightly as the coving member 110 is rotated. This feature advantageously reduces the likelihood of the coving member 110 becoming detached from the bracket 120 at the hinge mechanism when rotated about the hinge mechanism to expose the interior surface 112 of the coving member 110.

[0082] The hinge mechanism is at least provided by the fixing point 130 when the coving assembly 100 is in the connected configuration. Advantageously, the hinge mechanism may be provide by the fixing point 130 when the coving assembly 100 is the secured configuration. For example, where the securing member 140 comprises a cylindrical section for engagement at the fixing point 130, rotation of the hinge may occur about the curved surface of the cylindrical section.

[0083] In some examples, the socket and protrusion connection members 130a,b are structures having a C- shaped profile. The connection members 130a, b thus enable rotational movement of the coving member 110 relative to the bracket 120 based on the size of the opening of the C-shaped profile. Figure 3A schematically depicts a perspective view of the coving assembly 100 comprising the coving member 110 of Figure 1A, the brackets 120 of Figure 1 B, and the securing member 140 of Figure 1 C. The coving assembly 100 is depicted in an exploded view, with the coving member 110, brackets 120, and securing member 140 aligned for engagement. The longitudinal axis of the coving member 110 is shown as dashed line Y.

[0084] Figure 3A shows the brackets 120 arranged in an angled configuration. One bracket 120 is arranged for Installation on a wall, and the other bracket 120 Is arranged substantially perpendicular thereto for Installation on a celling. A respective securing member 140 Is configured to be Inserted Into a fixing point 130 formed by the first connection member 130a of the coving member 110 and the second connection member 130b of each bracket 120. As disclosed above, the brackets 120 comprise a plurality of apertures 124 configured to receive means for affixing the bracket 120 to the wall or ceiling. The opening of the apertures 124 are extend in a transverse direction perpendicular to the longitudinal axis of the coving member 110 to enable sliding of the bracket 120 in the transverse direction.

[0085] Figure 3B schematically depicts a perspective view of the coving assembly 100 of Figure 3A In a secured configuration, the coving assembly 100 comprising the coving member 110 of Figure 1A, the brackets 120 of Figure 1 B, and the securing member 140 of Figure 1C. In Figure 3B, the brackets 120 are connected to the coving member 110 and the securing member 140 is engaged with the fixing point 130 formed by the first and second connection members 130a, b. The longitudinal axis of the coving member 110 is shown as dashed line Y.

[0086] Figure 3C schematically depicts a back view of the coving assembly 100 of Figure 3B. The coving assembly 100 is in a secured configuration and comprises the coving member 110 of Figure 1A, the brackets 120 of Figure 1 B, and the securing member 140 of Figure 1C. The longitudinal axis of the coving member 110 is shown as dashed line Y.

[0087] Figure 4 schematically depicts a method of securing a coving assembly 100. The method shown in Figure 4 is for securing the coving assembly 100 depicted in Figures 3A, 3B and 3C, which coving assembly comprises the coving member 110 of Figure 1A, the brackets 120 of Figure 1 B, and the securing member 140 of Figure 1C. The method comprises steps S1 and S2, and optional additional steps (SO, S3, S4) are depicted using dashed lines.

[0088] The method of securing a coving assembly 100 comprises: S1 connecting a coving member to a bracket at a fixing point; and S2 engaging a securing member at the fixing point to resist disconnection of the bracket and coving member, thereby securing the connection between the bracket and coving member. In some examples, connecting the coving member to a bracket at the fixing point, as recited in S1 , comprises deforming the fixing point to thereby connect the fixing point. Additionally or alternatively, engaging the securing member, as recited in S2, comprises inserting one or more sections of the securing member into a receiving volume of the fixing point.

[0089] The method may additionally comprise a step of SO mounting (e.g, affixing) the bracket to a wall and / or ceiling, prior to the step S1 .

[0090] Additionally or alternatively, the method comprises S3 unsecuring the coving assembly by displacing one or more sections of the securing member relative to the fixing point, after the step S2. In some examples, displacing one or more sections of securing member, as recited In S3, comprises displacing one or more sections of the securing member relative to the fixing point whilst retaining engagement of the securing member with the fixing point, in other examples, displacing one or more sections of securing member, as recited In S3, comprises disengaging the securing member from the fixing point

[0091] Additionally or alternatively, the method comprises S4 disconnecting the coving member and bracket, after the step S3.

[0092] In summary, the Invention provides a coving assembly that can be secured against accidental uninstallation, and which also facilitates uninstallation after the coving has been fitted. Repeated uninstallation or Installation, including for access to things covered by the coving, Is made easier and safer.

[0093] The optional features set out herein may be used either individually or in combination with each other where appropriate and particularly in the combinations as set out in the accompanying claims. The optional features for each aspect or exemplary embodiment of the invention, as set out herein are also applicable to all other aspects or exemplary embodiments of the invention, where appropriate. In other words, the skilled person reading this specification should consider the optional features for each aspect or exemplary embodiment of the invention as interchangeable and combinable between different aspects and exemplary embodiments.

[0094] Although a preferred embodiment has been shown and described, It will be appreciated by those skilled in the art that various changes and modifications might be made without departing from the scope of the Invention, as defined In the appended claims and as described above.

[0095] All of the features disclosed in this specification (Including any accompanying claims and drawings), and / or all of the steps of any method or process so disclosed, may be combined in any combination, except combinations where at most some of such features and / or steps are mutually exclusive. Each feature disclosed in this specification (including any accompanying claims, and drawings) may be replaced by alternative features serving the same, equivalent or similar purpose, unless expressly stated otherwise. Thus, unless expressly stated otherwise, each feature disclosed is one example only of a generic series of equivalent or similar features.

Claims

CLAIMS1. A coving assembly (100) configured to be fitted to a wall or ceiling, the coving assembly (100) comprising: a coving member (110); a bracket (120) configured to be mounted to the wall; a fixing point (130), wherein the coving member (110) and bracket (120) are connectable to one another at the fixing point (130), and a securing member (140) configured to engage the fixing point (130) to resist disconnection of the bracket (120) and coving member (120), thereby securing the connection between the bracket (120) and coving member (110).

2. The coving assembly (100) according to claim 1 , wherein the fixing point (130) defines a receiving volume for receiving the securing member (140).

3. The coving assembly (100) according to claim 2, wherein the receiving volume is a longitudinally extending volume.

4. The coving assembly (100) according to any of claims 2 to 3, wherein one or more sections of the securing member (140) are insertable into the receiving volume of the fixing point (130), thereby securing the connection between the bracket (120) and coving member (110).

5. The coving assembly (100) according to any preceding claim, wherein the fixing point (130) is configured to deform to thereby connect and / or disconnect the coving member (110) and bracket (120).

6. The coving assembly (100) according to claim 5, wherein the securing member (140) is configured to resist disconnection of the bracket (120) and coving member (110) by restricting deformation of the fixing point.

7. The coving assembly (100) according to any preceding claim, wherein the securing member (140) comprises a longitudinally extending body.

8. The coving assembly (100) according to any preceding claim, wherein the securing member (140) comprises a cylindrical section.

9. The coving assembly (100) according to claim 8, wherein the securing member (140) comprises a plurality of cylindrical sections along its length, wherein a first cylindrical section of the plurality of cylindrical sections comprises a first diameter, and a second cylindrical section of the plurality of cylindrical sections comprises a second diameter, the first diameter being greater than the second diameter.

10. The coving assembly (100) according to any preceding claim, wherein the fixing point (130) provides a hinge, thereby allowing rotation of the coving member (110) relative to the bracket (120).

11. The coving assembly (100) according to any preceding claim, wherein the fixing point (130) comprises a first connection member (130a) provided by the coving member (110) and a second connection member (130b) provided by the bracket (120), the first and second connection members (130a,b) comprising complementary connection means for selectively connecting the coving member (110) and bracket (120).

12. The coving assembly (100) according to claim 11 , wherein the first or second connection member (130a,b) is configured to be insertable into the other of the first and second connection member (130a, b).

13. The coving assembly (100) according to claims 11 or 12, wherein at least one of the first and second connection members (130a,b) comprises a C-shaped cross-section.

14. The coving assembly (100) according to any preceding claim, wherein the bracket (120) is configured to be slidably mounted onto the wall.

15. The coving assembly (100) according to any preceding claim, wherein the coving assembly (100) is configurable to: a connected configuration, wherein the coving member (110) and bracket (120) are connected to one another at the fixing point (130); and a secured configuration, wherein the coving member (110) and bracket (120) are connected to one another at the fixing point (130) and the securing member (140) is engaged with the fixing point (130).

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