Insert element, transport container and method for their manufacture

Description

[0001] The present invention relates to an insert element for a transport container for transporting a cosmetic or pharmaceutical object. Furthermore, the present invention relates to a transport container for transporting a cosmetic or pharmaceutical object. Furthermore, the present invention relates to a method for producing an insert element for a transport container for transporting a cosmetic or pharmaceutical object. Furthermore, the present invention relates to a method for producing a transport container for transporting a cosmetic or pharmaceutical object.

[0002] Transport containers for transporting a cosmetic or pharmaceutical object are known in the state of the art.

[0003] The transport of cosmetic or pharmaceutical objects takes place primarily in packaging machines for packaging the cosmetic or pharmaceutical objects, as well as in equipment systems for filling and sealing these objects. Cosmetic or pharmaceutical objects can be, for example, bottles, vials, ampoules, syringes, or the like. The cosmetic or pharmaceutical objects can be filled in the packaging machines and equipment systems with cosmetic or pharmaceutical products, such as substances such as liquids, powders, tablets, or the like.

[0004] Such packaging machines and equipment systems have various handling stations or handling assemblies that perform specific processing steps on the objects, such as filling or sealing. Transport systems are provided for transporting the objects between the individual handling assemblies. The transport systems can, for example, comprise transport tracks, movement devices, conveyor belts, handling robots, or the like, through which the objects can be moved.

[0005] In particular, it is known to arrange each object in a transport container, at least during transport, wherein the transport systems are configured to move the transport containers in order to transport the objects arranged therein. These transport containers can also be referred to as cups or transport beakers. For transporting cosmetic or pharmaceutical objects, such transport containers generally have a receptacle into which a cosmetic or pharmaceutical object to be transported can be inserted.

[0006] In principle, various cosmetic or pharmaceutical objects can be processed in such packaging machines or device systems. Especially when the various objects have different shapes, different transport containers are required for transporting the different objects, with the receptacles of the transport containers being adapted to the respective shape of the object to be transported. In other words, it is necessary to provide a customized transport container for each object.

[0007] The document EP 2 174 875 A1 discloses an insert element according to the preamble of independent claim 1.

[0008] Against this background, however, there is still room for improvement, particularly with regard to the transport of different objects, the flexible processing of different objects and the design of the transport containers.

[0009] It is therefore an object of the present invention to provide an improved transport container.

[0010] According to a first aspect of the present invention, an insert element for a transport container for transporting a cosmetic or pharmaceutical object is provided, wherein the insert element has a receptacle configured to receive the cosmetic or pharmaceutical object. The insert element has a frame, wherein the frame encloses the receptacle. The frame is at least partially double-walled. The frame has one or more spring devices, wherein each spring device is arranged on an outer side of the frame. Each spring device is arranged in a region of the frame in which the frame is double-walled.

[0011] According to a second aspect of the present invention, a transport container for transporting a cosmetic or pharmaceutical object is provided, wherein the transport container comprises a base element and the insert element according to the first aspect, wherein the base element has a recess into which the insert element is inserted.

[0012] The transport container serves to transport the cosmetic or pharmaceutical object. The transport container has at least two separate parts, namely the base element and the insert element. The insert element can be inserted into the base element. The insert element can therefore also be referred to as an insert or inlay. The base element has a recess into which the insert element can be inserted. The base element thus serves as a carrier for the insert element. The base element can also be referred to as a carrier element.

[0013] The insert element is preferably made of a plastic. The base element is preferably made of a plastic or a metal, preferably aluminum or stainless steel.

[0014] The base element has a top side and a bottom side. The top and bottom of the base element are arranged opposite one another in the vertical direction. The recess is preferably arranged on the top side. The recess is open towards the top side. The recess extends from the top side into the base element. The recess can have a bottom. The recess has a depth. The depth corresponds to the distance in the vertical direction between the top side and the bottom. The insert element has a height in the vertical direction. The height of the insert element is equal to or less than the depth of the recess.

[0015] The receptacle of the insert element is designed to receive the cosmetic or pharmaceutical object therein. In other words, the object can be inserted into the receptacle for transport. The receptacle of the insert element has a first opening into which the object can be received or inserted. The insert element preferably has a top side and a bottom side. The top and bottom sides of the insert element are arranged opposite one another in the vertical direction. The first opening is preferably arranged on the top side of the insert element. The receptacle preferably extends from the top side to the bottom side of the insert element. In particular, the receptacle can have a second opening on the bottom side. When the insert element is inserted into the base element, the second opening can be arranged at the bottom of the base element.

[0016] The recess can have a hole in the base. The hole can extend to the underside of the base element. The hole allows access to the recess from the underside. The hole has a smaller cross-section than the recess. In particular, the hole has a smaller cross-section than the cosmetic or pharmaceutical object to be transported. For example, the bottom of the object can be printed through the hole. Alternatively, the object can also be lifted from below through the hole.

[0017] Thanks to the two-part design of the transport container, only the insert element needs to be adapted to the shape of the object to be transported. If various objects with different shapes are to be transported, only one corresponding insert element needs to be selected, whereby the same base element can be used for all objects. In particular, if objects with a first shape are to be transported first and then objects with a second shape, the inventive design of the transport container allows only the insert element to be exchanged or replaced. In other words, to transport a specific object, only the corresponding insert element needs to be inserted into the base element.

[0018] This eliminates the need to produce a complete, customized transport container for each object shape. Instead, it is sufficient to manufacture a corresponding insert element and insert it into the base element. This saves material, in particular. Furthermore, the transport container can be used flexibly. Furthermore, the insert element is also faster and easier to manufacture than an entire transport container.

[0019] The insert element has a frame, which encloses the receptacle. The object to be transported is thus received within the frame. The frame has an inner side and an outer side. The inner side faces the receptacle. The outer side faces away from the receptacle. An inner side of the frame forms the internal cross-sectional geometry. The outer side of the frame is preferably adapted to the shape of the recess in the base element.

[0020] The frame is at least partially double-walled, in particular wherein the frame is double-walled at least on two opposite sides of the receptacle. In particular, the frame can be double-walled on the narrow sides and / or on the wide sides. In a preferred embodiment, the frame is double-walled at least on the narrow sides. This improves the stability of the frame. Furthermore, the double-walled design mechanically decouples the inner walls and outer walls of the frame at least partially from one another. When inserting the insert element into the base element or during transport of the transport container during processing of the object, forces or mechanical stresses can act on the insert element.The double-walled design reduces the impact of these forces and mechanical stresses on the holder and the object contained within. This provides better protection for the holder and the object contained within.

[0021] The frame has one or more spring devices, each spring device being arranged on an outer side of the frame. Each spring device preferably serves to hold the insert element in the recess of the base element, in particular to clamp it therein. In particular, the spring device is designed such that it is compressed inwards or together when the insert element is inserted into the base element. As a result, the spring device builds up a restoring force by means of which the insert element is clamped in the recess and thereby held. In other words, this achieves a frictional connection between the insert element and the base element. In particular, the outer cross-sectional geometry of the frame in the region of the spring device is larger before insertion than the cross-sectional geometry of the recess of the base element.Preferably, the insert element has a plurality of spring devices, in particular two spring devices.

[0022] Each spring device is arranged in an area of ​​the frame in which the frame is double-walled. In this way, when the insert element is inserted into the recess of the base element in the area of ​​the frame in which the spring device is arranged, only the outer wall is pressed inwards. The inner wall is not deformed. As a result, the internal cross-sectional geometry, which is adapted to the shape of the object, remains unchanged. Preferably, the insert element has a plurality of spring devices, with one spring device being arranged on each of the opposite sides of the frame. The spring devices are preferably arranged on the narrow sides and / or on the wide sides of the frame. In a preferred embodiment, the insert element has two spring devices, with one spring device being arranged on each of the narrow sides, with each narrow side being double-walled.

[0023] According to a third aspect of the present invention, a method is provided for producing an insert element for a transport container for transporting a cosmetic or pharmaceutical object, wherein the insert element has a receptacle adapted to receive the cosmetic or pharmaceutical object, the method comprising the following steps: Providing a workpiece holder; and creating the insert element by means of an additive process on the workpiece holder, wherein the insert element has a frame, wherein the frame encloses the receptacle, wherein the frame is at least partially double-walled, wherein the frame has one or more spring devices, wherein each spring device is arranged on an outer side of the frame, wherein each spring device is arranged in a region of the frame in which the frame is double-walled.

[0024] By means of the third aspect, in particular the insert element according to the first aspect can be produced.

[0025] The additive process is, in particular, a 3D printing process. In general, an additive process is a process for producing a three-dimensional object. This object can also be referred to as a workpiece. Layers or plies of a material (such as plastic or metal) are placed on top of each other one after the other. In other words, in the additive process, material is applied layer by layer to create the three-dimensional object. This process can, for example, be computer-controlled, i.e. controlled by a computer or a control device. The 3D design of the object to be produced is digitally defined in a computer program and is present therein, in particular, as a virtual model. The virtual model can, for example, be a CAD model.

[0026] The additive process may comprise one or more of the following processes: free-jet binder deposition, material deposition with directed energy input, material extrusion, free-jet material deposition, powder-bed melting, layer lamination, and bath-based photopolymerization. Appropriate devices, in particular a 3D printing device, can be used to carry out these processes. Such additive processes and devices for producing an object are generally known in the art and will not be explained in detail below.

[0027] To create the insert element, a material is applied layer by layer to the workpiece holder using the additive process. The insert element is preferably formed in one piece or integrally. The insert element is preferably made of a plastic.

[0028] Manufacturing the insert element using an additive process is particularly simple, fast and cost-effective.

[0029] According to a fourth aspect of the present invention, a method for producing a transport container for transporting a cosmetic or pharmaceutical object is provided, the transport container comprising an insert element and a base element, comprising the following steps: Producing the insert element by means of the method according to the third aspect; and inserting the insert element into a recess of the base element.

[0030] By means of the fourth aspect, in particular the transport container according to the second aspect can be produced.

[0031] By means of the aspects of the invention, an insert element and a transport container are provided that are simple and material-efficient to manufacture and can be used flexibly. In particular, the new insert element and the new transport container allow the transport container to be quickly and easily adapted to various objects with different shapes.

[0032] The task posed at the beginning is thus completely solved.

[0033] In a first embodiment according to one of the aspects, the insert element is formed in one piece.

[0034] In other words, the insert element is integrally formed. Preferably, the insert element can be manufactured using an additive process, such as a 3D printing process. This allows the insert element to be produced particularly easily, quickly, and cost-effectively.

[0035] In a further embodiment according to one of the aspects, the insert element can be inserted into a recess of a base element of the transport container.

[0036] In this way, only the insert element needs to be adapted to the shape of the object to be transported. To prepare the transport container for the object, the corresponding insert element can then be inserted into the (in principle universal) base element. This allows the transport container to be easily and quickly adapted to objects of different shapes.

[0037] In a further embodiment according to one of the aspects, the receptacle has an inner cross-sectional geometry, in particular wherein the inner cross-sectional geometry is rectangular or oval.

[0038] The oval shape describes a shape that is (arbitrarily) convexly curved. The term "oval" also includes "circular" (i.e., a shape with a constant, convex curvature). The term "rectangular" also includes "square." Preferably, the inner cross-sectional geometry is complementary to the cross-sectional geometry of the cosmetic or pharmaceutical object. In this way, the holder is adapted to the object to be transported.

[0039] In a further embodiment according to one of the aspects, the frame has two opposite broad sides and two opposite narrow sides, wherein the broad sides and the narrow sides enclose the receptacle.

[0040] The narrow sides of the frame are arranged in a first direction on opposite sides of the receptacle. The wide sides of the frame are arranged in a second direction on opposite sides of the receptacle. The first direction and the second direction are preferably arranged perpendicular to each other. The first direction and the second direction are preferably arranged perpendicular to the vertical direction. Preferably, each narrow side has an extension in the second direction that is smaller than an extension of the wide side in the first direction. In other words, the narrow sides are narrower than the wide sides.

[0041] In a further embodiment according to one of the aspects, an outer side of the frame has an outer cross-sectional geometry, in particular wherein the outer cross-sectional geometry is rectangular or oval.

[0042] The inner cross-sectional geometry is smaller than the outer cross-sectional geometry. The outer cross-sectional geometry is preferably adapted to the cross-sectional geometry of the recess of the base element.

[0043] In a further embodiment according to one of the aspects, the frame has a surrounding outer wall.

[0044] The outer wall forms the outside of the frame. In particular, the outer wall is adapted to the shape of the recess in the base element.

[0045] In a further embodiment according to one of the aspects, the frame further comprises an inner wall in each double-walled area.

[0046] In the double-walled areas of the frame, the frame thus has an outer wall located on the outside and an additional inner wall located on the inside. The terms "inner" and "outer" are to be understood with reference to the receptacle of the insert element. In particular, the inner wall in the double-walled area is arranged closer to the receptacle than the outer wall. Preferably, the frame has an inner wall on each of the two opposite sides of the receptacle. In particular, the frame has an inner wall on each narrow side. Alternatively, the frame can also be completely double-walled all the way around the receptacle. In this case, the frame has a circumferential, inner inner wall and a circumferential, outer wall. The inner wall and the outer wall can be connected to one another in places. For example, the frame can have pins, webs, or partition walls for this purpose.

[0047] In a further embodiment according to one of the aspects, the frame has a collar on its upper edge, wherein the collar projects outwards.

[0048] Specifically, the collar extends outward beyond the outer wall of the frame. When the insert element is inserted into the recess of the base element, the collar rests laterally on the upper end of the recess, i.e., at the transition between the recess and the top of the base element. The collar can be used to position or hold the insert element in a defined position within the recess.

[0049] In a further embodiment according to one of the aspects, each spring device has a projection which projects outwards from an outer wall of the frame.

[0050] The frame preferably has a plurality of projections, in particular two projections. Each projection extends outwards from the outer wall of the frame. Each projection serves to clamp the insert element in the recess of the base element. For this purpose, each projection is preferably arranged such that it is pressed inwards when the insert element is inserted into the recess of the base element. In particular, the outer cross-sectional geometry of the frame in the region of each projection can be larger than the cross-sectional geometry of the recess of the base element before insertion. The projections thus cause the corresponding regions of the frame in which the projections are arranged to be pressed in when the insert element is inserted into the recess of the base element. This clamps the insert element in the recess of the base element. In other words, a frictional connection is achieved via the projections during insertion.

[0051] In a further embodiment according to one of the aspects, each spring device is formed by an elastic region of the frame.

[0052] The elastic region of the frame is formed in particular in the outer wall. The elastic region of the frame can be produced, for example, by the frame being thinner in this region and / or having an elastic element and / or having one or more notches. This ensures that the frame can yield in this region when an external force acts. Each elastic region serves to clamp the insert element in the recess of the base element. For this purpose, the elastic region can be arranged such that it is pressed inwards or compressed when the insert element is inserted into the recess of the base element. In particular, the outer cross-sectional geometry of the frame in each elastic region can be larger than the cross-sectional geometry of the recess of the base element before insertion.The design of the elastic regions thus ensures that when the insert element is inserted into the recess of the base element, the elastic regions are pressed in. This clamps the insert element into the recess of the base element. In other words, a frictional connection is achieved via the elastic regions during insertion.

[0053] In a further embodiment according to one of the aspects, each spring device is spaced from the collar.

[0054] The frame is relatively stiff and dimensionally stable in the area where the collar is located. If a spring device is located directly on the collar, the frame is more difficult to compress in this area. Furthermore, the frame could be damaged if the spring device is pushed in at the collar. If the spring device is spaced vertically from the collar, the corresponding area of ​​the frame can be compressed more easily and the frame is not damaged at the collar. This improves the stability of the frame.

[0055] In a further embodiment according to one of the aspects, the recess has two opposite broad sides and two opposite narrow sides.

[0056] The narrow sides and wide sides of the recess form, in particular, the peripheral edge of the recess. The narrow sides of the recess are arranged on opposite sides of the recess in the first direction. The wide sides of the recess are arranged on opposite sides of the recess in the second direction. The first direction and the second direction are preferably arranged perpendicular to one another. The first direction and the second direction are preferably arranged perpendicular to the vertical direction. Preferably, each narrow side in the second direction has an extension that is smaller than an extension of each wide side in the first direction. In other words, the narrow sides are narrower than the wide sides.

[0057] In a further embodiment according to one of the aspects, the recess has a cross-sectional geometry, in particular wherein the cross-sectional geometry of the recess is oval or rectangular.

[0058] Preferably, the cross-sectional geometry of the recess is adapted to the shape of the insert element.

[0059] In a further embodiment according to one of the aspects, the cross-sectional geometry of the recess is complementary to the outer cross-sectional geometry of the frame of the insert element.

[0060] In this way, the shapes of the recess and the insert element are coordinated. This allows the insert element to be inserted into the recess. In particular, the outer cross-sectional geometry of the frame of the insert element in the inserted state (when the insert element is inserted into the recess of the base element) can correspond to the cross-sectional geometry of the recess. In this case, the cross-sectional geometry of the recess and the outer cross-sectional geometry of the frame are preferably both oval. Alternatively, the outer cross-sectional geometry of the frame of the insert element in the inserted state can be smaller than the cross-sectional geometry of the recess. In this case, the cross-sectional geometry of the recess and the outer cross-sectional geometry of the frame are preferably rectangular.In particular, the outer cross-sectional geometry of the frame of the insert element is smaller only in each region of the frame in which a spring device is arranged. For example, the outer cross-sectional geometry of the frame can be smaller on both narrow sides than the cross-sectional geometry of the recess. When the insert element is not inserted into the recess of the base element, the outer cross-sectional geometry of the frame is preferably slightly larger than the cross-sectional geometry of the recess in each region in which one of the spring devices is arranged. These regions can then be pressed into the recess upon insertion in order to clamp the insert element in the recess and thereby hold it.

[0061] In a further embodiment according to one of the aspects, the recess has a bevelled or rounded section at an upper end, in particular wherein the collar of the frame of the insert element is formed complementarily to the bevelled or rounded section of the recess.

[0062] The beveled or rounded section is located at the upper end of the recess, on the peripheral edge of the recess. In other words, the beveled or rounded section is located at the opening of the recess on the top side of the base element. The beveled or rounded section thus forms a transition from the recess to the top side of the base element. When the insert element is inserted into the recess of the base element, the collar rests in the beveled or rounded section. This holds the insert element in a defined position. It also prevents the insert element from being pushed further down into the recess.

[0063] In a further embodiment according to the third or fourth aspect, the insert element has a frame, wherein the frame encloses the receptacle, wherein in the step of creating the frame of the insert element is created by means of the additive process.

[0064] In this way, the frame is manufactured quickly and easily. In particular, during the frame manufacturing step, the additive manufacturing process can be used to create the outer wall, each inner wall, the collar, and each spring device as an integral part. This results in a single-piece frame (and thus also the insert element).

[0065] It is understood that the features mentioned above and those to be explained below can be used not only in the combination specified in each case, but also in other combinations or on their own, without departing from the scope of the present invention.

[0066] Embodiments of the invention are illustrated in the drawings and explained in more detail in the following description. They show: Fig. 1 is an isometric view of a first embodiment of a transport container; Fig. 2 is an isometric view of a base element of the transport container from Fig. 1 ; Fig. 3 a plan view of a top side of the base element from Fig. 2 ; Fig. 4 an isometric view of an insert element of the transport container from Fig. 1 ; Fig. 5 a plan view of an upper side of the insert element from Fig. 4 ; Fig. 6 a plan view of a bottom side of the insert element from Fig. 4 ; Fig. 7 a cross-sectional view of the insert element from Fig. 4 ; Fig. 8 a cross-sectional view of an insert element with alternative internal cross-sectional geometry compared to the insert element of Fig. 4 ; Fig. 9 a cross-sectional view of the transport container from Fig. 1; Fig. 10 an isometric view of a cosmetic or pharmaceutical object; Fig. 11 an isometric view of the transport container from Fig. 1 with an inserted cosmetic or pharmaceutical object; Fig. 12 an isometric view of a second embodiment of a transport container; Fig. 13 an isometric view of a base element of the transport container from Fig. 12 ; Fig. 14 a plan view of a top side of the base element from Fig. 13 ; Fig. 15 an isometric view of an insert element of the transport container from Fig. 12 ; Fig. 16a 17top view of a top side of the insert element made of Fig. 15 ; Fig. 17 a plan view of a bottom side of the insert element from Fig. 15 ; Fig. 18 a cross-sectional view of the insert element from Fig. 15 ; Fig. 19 a cross-sectional view of an insert element with alternative internal cross-sectional geometry compared to the insert element of Fig. 15; Fig. 20 a cross-sectional view of the transport container from Fig. 12 ; Fig. 21 an isometric view of a cosmetic or pharmaceutical object; Fig. 22 an isometric view of the transport container from Fig. 12 with an inserted cosmetic or pharmaceutical object; Fig. 23 shows a schematic view of an embodiment of a method for producing an insert element; and Fig. 24 shows a schematic view of an embodiment of a method for producing a transport container.

[0067] Fig. 1 shows a first embodiment of a transport container, designated in its entirety by reference numeral 100. The transport container 100 serves for transporting a cosmetic or pharmaceutical object. The cosmetic or pharmaceutical object has, in particular, an oval cross-sectional shape.

[0068] The transport container 100 comprises a base element 102 and an insert element 104. The base element 102 has a recess 106 into which the insert element 104 can be inserted. In the assembled state of the transport container 100, the insert element 104 is inserted into the recess 106. The insert element 104 has a receptacle 108. The receptacle 108 is designed to receive the cosmetic or pharmaceutical object. In other words, the cosmetic or pharmaceutical object can be inserted into the receptacle 108 for transport.

[0069] With respect to the transport container 100, a first direction 110, a second direction 112, and a vertical direction 114 are defined. The first direction 110 and the second direction 112 are perpendicular to each other. The first direction 110 and the second direction 112 are arranged horizontally. The first direction 110 and the second direction 112 are thus perpendicular to the vertical direction 114. The three directions 110, 112, 114 thus form a Cartesian coordinate system 116.

[0070] In the Figures 2 and 3the base element 102 is shown in detail. The base element 102 has a top side 118 and a bottom side 120. The top side 118 and the bottom side 120 are arranged opposite one another in the vertical direction 114. The recess 106 is arranged on the top side 118. The recess 106 has an opening at the top side 118. The recess 106 extends from the top side 118 towards the bottom side 120. The recess 106 has a bottom 122. The recess 106 has a depth in the vertical direction 114. The depth corresponds to the distance from the top side 118 to the bottom 122 of the recess.

[0071] The recess 106 has a hole 124 in the base 122. The hole 124 extends to the underside 118 of the base element 102. The hole 124 allows access to the recess 106 from the underside 118. The hole 124 has a smaller cross-section than the recess 106.

[0072] The recess 106 has two opposite narrow sides 126 and two opposite wide sides 128. The narrow sides 126 and wide sides 128 of the recess 106 form the peripheral edge of the recess 106. The narrow sides 126 are arranged on opposite sides of the recess in the first direction 110. The wide sides 128 are arranged on opposite sides of the recess 106 in the second direction 112. Each narrow side 126 has an extension in the second direction 112 that is smaller than an extension of each wide side 128 in the first direction 110.

[0073] The recess 106 has a cross-sectional geometry perpendicular to the vertical direction 114. The cross-sectional geometry of the recess 106 is oval. The cross-sectional geometry of the recess 106 is adapted to the shape of the insert element 104.

[0074] The recess 106 has a beveled or rounded section 130 at an upper end. The section 130 forms a transition between the recess 106 and the upper side 118. The section 130 runs along the upper end of the peripheral edge of the recess 106. The section 130 encloses the opening of the recess 106 on the upper side 118.

[0075] The base element 102 may further include a circumferential groove 156 on the outside between the top side 118 and the bottom side 120, in which an O-ring 158 is disposed. The O-ring 158 may be made of an elastic material such as rubber.

[0076] In the Figures 4 to 7 The insert element 104 is shown in detail. The insert element 104 is formed in one piece. The insert element 104 is preferably made of plastic. The insert element 104 is shaped such that it can be inserted into the recess 106.

[0077] The insert element 104 has a top side 132 and a bottom side 134. The top side 132 and the bottom side 134 of the insert element 104 are arranged opposite one another in the vertical direction 114. The insert element 104 has a height in the vertical direction 114. The height corresponds to the distance between the top side 132 and the bottom side 134. The height of the insert element 104 is preferably equal to or less than the depth of the recess 106.

[0078] The receptacle 108 extends from the top side 132 to the bottom side 134. The receptacle 108 has a first opening 136 into which the object can be received or inserted. The first opening 136 is arranged on the top side 132. The receptacle 108 has a second opening 138 on the bottom side 134. When the insert element 104 is inserted into the base element 102, the second opening 138 is arranged at the bottom 122 of the recess 106 of the base element 102.

[0079] The receptacle 108 has an inner cross-sectional geometry perpendicular to the vertical direction 114. The inner cross-sectional geometry of the receptacle 108 is oval. In particular, the inner cross-sectional geometry is complementary to a cross-sectional geometry of the cosmetic or pharmaceutical object.

[0080] The insert element 104 has a frame 140. The frame 140 encloses the receptacle 108. The frame 140 has an inner side and an outer side. The inner side faces the receptacle 108. The outer side faces away from the receptacle 108. The inner side of the frame 140 forms the inner cross-sectional geometry. The outer side of the frame 140 is preferably adapted to the shape of the recess 106 of the base element 102.

[0081] The outer side of the frame 140 has an outer cross-sectional geometry perpendicular to the vertical direction 114. The outer cross-sectional geometry of the frame 140 is oval. In particular, the cross-sectional geometry of the recess 106 is complementary to the outer cross-sectional geometry of the frame 140. The inner cross-sectional geometry of the receptacle 108 is smaller than the outer cross-sectional geometry of the frame 140.

[0082] The frame 140 has two opposite narrow sides 142 and two opposite wide sides 144. The narrow sides 142 and the wide sides 144 enclose the receptacle 108. The narrow sides 142 are arranged on opposite sides of the receptacle 108 in the first direction 110. The wide sides 144 are arranged on opposite sides of the receptacle 108 in a second direction 112. Preferably, each narrow side 142 has an extension in the second direction 112 that is smaller than an extension of each wide side 144 in the first direction 110.

[0083] The frame 140 has a circumferential outer wall 146. The outer wall runs along the outside of the frame 140. The outer wall 146 forms, in particular, the outside of the frame 140.

[0084] The frame 140 is partially double-walled. In particular, the frame is double-walled on the narrow sides 142. The frame 140 has an inner wall 148 in each double-walled area. The frame 140 has, in particular, two inner walls 148. One inner wall 148 is arranged on each of the narrow sides 142. The outer wall 146 and the inner walls 148 are spaced apart from one another on the narrow sides 142. Each inner wall 148 has opposite ends in the second direction 112, which are connected to the outer wall 146. The connections can be made at the transitions between the wide sides 144 and the narrow sides 142.

[0085] The frame 140 has a collar 150. The collar 150 is arranged at an upper edge of the frame 140. The collar 150 protrudes outwards. In particular, the collar 150 protrudes outwards beyond the outer wall 146. When the insert element 104 is inserted into the recess 106 of the base element 102, the collar 150 rests laterally on an upper end of the recess 106, i.e., at the transition of the recess 106 to the upper side 118 of the base element 102. In particular, the collar 150 is designed to be complementary to the beveled or rounded section 130 of the recess 106. When the insert element 104 is inserted into the recess 106 of the base element 102, the collar 150 rests in the section 130.

[0086] The frame has two elastic regions 152. The elastic regions 152 are arranged on the outside of the frame 140. The elastic regions 152 are part of the outer wall 146. Each elastic region 152 has one or more, in particular two, notches that extend from the outside into the outer wall. An elastic element can be arranged between the two notches of an elastic region 152. In particular, one elastic region 152 is arranged on each of the narrow sides 142 of the frame 140. Each elastic region 152 is therefore arranged in a double-walled region of the frame 140 on the outer wall 146. Preferably, each elastic region 152 is spaced from the collar 150 in the vertical direction 114.

[0087] Each elastic region 152 serves as a spring device designed to hold the insert element 104 in the recess 106 when inserted. For this purpose, each elastic region 152 is arranged such that it is pressed inward when the insert element 104 is inserted into the recess 106. In particular, the outer cross-sectional geometry of the frame 140 in the elastic region 152 may be larger than the cross-sectional geometry of the recess 106 prior to insertion. When the insert element 104 is inserted into the recess 106 of the base element 102, the elastic regions 152 are pressed inward, thereby clamping and holding the insert element 104 in the recess 106.

[0088] The insert element 104 may further comprise recesses in the frame 140. The recesses are preferably circular and may be arranged in the region of the broad sides 144 in the outer wall 146 or in the region of the narrow sides 142 in the inner wall 148. The insert element made of Fig. 4 has such circular recesses in the outer wall 146 in the area of ​​the broad sides 144.

[0089] In the Figures 4 to 7 The inner cross-sectional geometry of the receptacle 108 is oval. In principle, however, the inner cross-sectional geometry of the receptacle 108 of the insert element 104 can be of any shape, as long as it is smaller than the outer cross-sectional geometry of the frame 140. In Fig. 8An insert element 104' is shown as an example. The insert element 104' differs from the insert element 104 in that the inner cross-sectional geometry of the receptacle 108 is rectangular. For this purpose, the frame 140 of the insert element 104' has straight inner walls 148' on both narrow sides 142 and on both wide sides 144.

[0090] In Fig. 9 The arrangement of the insert element in the recess is shown in the inserted state. The cross-sectional geometry of the recess 106 is complementary to the outer cross-sectional geometry of the frame 140. In the inserted state, the outer cross-sectional geometry of the frame 140 corresponds in particular to the cross-sectional geometry of the recess 106. The elastic regions 152 are pressed inward, whereby the insert element 104 is held in the recess 106 with frictional engagement.

[0091] In Fig. 10A cosmetic or pharmaceutical object 154 is depicted. The object 154 is a bottle. The object 154 can be inserted into the receptacle 108 of the insert element 104. The object 154 has a cross-sectional geometry perpendicular to the vertical direction 114 that is oval.

[0092] In Fig. 11 is transport container 100 made of Fig. 1 shown, wherein the cosmetic or pharmaceutical object 154 consists of Fig. 10 is inserted into the receptacle 108 of the insert element 104. The inner cross-sectional geometry of the receptacle 108 is complementary to the cross-sectional geometry of the cosmetic or pharmaceutical object.

[0093] Fig. 12shows a second embodiment of a transport container, designated in its entirety by reference numeral 200. The transport container 200 serves for transporting a cosmetic or pharmaceutical object. The cosmetic or pharmaceutical object has, in particular, a rectangular cross-sectional shape.

[0094] The transport container 200 comprises a base element 202 and an insert element 204. The base element 202 has a recess 206 into which the insert element 204 can be inserted. In the assembled state of the transport container 200, the insert element 204 is inserted into the recess 206. The insert element 204 has a receptacle 208. The receptacle 208 is configured to receive the cosmetic or pharmaceutical object. In other words, the cosmetic or pharmaceutical object can be inserted into the receptacle 208 for transport.

[0095] With respect to the transport container 200, a first direction 210, a second direction 212, and a vertical direction 214 are defined. The first direction 210 and the second direction 212 are perpendicular to each other. The first direction 210 and the second direction 212 are arranged horizontally. The first direction 210 and the second direction 212 are thus perpendicular to the vertical direction 214. The three directions 210, 212, 214 thus form a Cartesian coordinate system 216.

[0096] In the Figures 13 and 14The base element 202 is shown in detail. The base element 202 has a top side 218 and a bottom side 220. The top side 218 and the bottom side 220 are arranged opposite one another in the vertical direction 214. The recess 206 is arranged on the top side 218. The recess 206 has an opening at the top side 218. The recess 206 extends from the top side 218 towards the bottom side 220. The recess 206 has a bottom 222. The recess 206 has a depth in the vertical direction 214. The depth corresponds to the distance from the top side 218 to the bottom 222 of the recess 206.

[0097] The recess 206 has a hole 224 in the base 222. The hole 224 extends to the underside 218 of the base element 202. The hole 224 allows access to the recess 206 from the underside 218. The hole 224 has a smaller cross-section than the recess 206.

[0098] The recess 206 has two opposite narrow sides 226 and two opposite wide sides 228. The narrow sides 226 and wide sides 228 of the recess 206 form the peripheral edge of the recess 206. The narrow sides 226 are arranged on opposite sides of the recess in the first direction 210. The wide sides 228 are arranged on opposite sides of the recess 206 in the second direction 212. Each narrow side 226 has an extension in the second direction 212 that is smaller than an extension of each wide side 228 in the first direction 210.

[0099] The recess 206 has a cross-sectional geometry perpendicular to the vertical direction 214. The cross-sectional geometry of the recess 206 is rectangular. The cross-sectional geometry of the recess 206 is adapted to the shape of the insert element 204.

[0100] The recess 206 has a beveled or rounded section 230 at an upper end. The section 230 forms a transition between the recess 206 and the upper side 218. The section 230 runs along the upper end of the peripheral edge of the recess 206. The section 230 encloses the opening of the recess 206 on the upper side 218.

[0101] The base element 202 may further include a circumferential groove 256 on the outside between the top side 218 and the bottom side 220, into which an O-ring 258 is disposed. The O-ring 258 may be made of an elastic material such as rubber.

[0102] In the Figures 15 to 18 The insert element 204 is shown in detail. The insert element 204 is formed in one piece. The insert element 204 is preferably made of plastic. The insert element 204 is shaped such that it can be inserted into the recess 206.

[0103] The insert element 204 has a top side 232 and a bottom side 234. The top side 232 and the bottom side 234 of the insert element 204 are arranged opposite one another in the vertical direction 214. The insert element 204 has a height in the vertical direction 214. The height corresponds to the distance between the top side 232 and the bottom side 234. The height of the insert element 204 is preferably equal to or less than the depth of the recess 206.

[0104] The receptacle 208 extends from the top side 232 to the bottom side 234. The receptacle 208 has a first opening 236 into which the object can be received or inserted. The first opening 236 is arranged on the top side 232. The receptacle 208 has a second opening 238 on the bottom side 234. When the insert element 204 is inserted into the base element 202, the second opening 238 is arranged at the bottom 222 of the recess 206 of the base element 202.

[0105] The receptacle 208 has an inner cross-sectional geometry perpendicular to the vertical direction 214. The inner cross-sectional geometry of the receptacle 208 is rectangular. In particular, the inner cross-sectional geometry is complementary to a cross-sectional geometry of the cosmetic or pharmaceutical object.

[0106] The insert element 204 has a frame 240. The frame 240 encloses the receptacle 208. The frame 240 has an inner side and an outer side. The inner side faces the receptacle 208. The outer side faces away from the receptacle 208. The inner side of the frame 240 forms the inner cross-sectional geometry. The outer side of the frame 240 is preferably adapted to the shape of the recess 206 of the base element 202.

[0107] The outer side of the frame 240 has an outer cross-sectional geometry perpendicular to the vertical direction 214. The outer cross-sectional geometry of the frame 240 is rectangular. In particular, the cross-sectional geometry of the recess 206 is complementary to the outer cross-sectional geometry of the frame 240. The inner cross-sectional geometry of the receptacle 208 is smaller than the outer cross-sectional geometry of the frame 240.

[0108] The frame 240 has two opposite narrow sides 242 and two opposite wide sides 244. The narrow sides 242 and the wide sides 244 enclose the receptacle 208. The narrow sides 242 are arranged on opposite sides of the receptacle 208 in the first direction 210. The wide sides 244 are arranged on opposite sides of the receptacle 208 in a second direction 212. Preferably, each narrow side 242 has an extension in the second direction 212 that is smaller than an extension of each wide side 244 in the first direction 210.

[0109] The frame 240 has a circumferential outer wall 246. The outer wall runs along the outside of the frame 240. The outer wall 246 forms, in particular, the outside of the frame 240.

[0110] The frame 240 is partially double-walled. In particular, the frame is double-walled on the narrow sides 242. The frame 240 has an inner wall 248 in each double-walled area. In particular, the frame 240 has two inner walls 248. One inner wall 248 is arranged on each of the narrow sides 242. The outer wall 246 and the inner walls 248 are spaced apart from one another on the narrow sides 242. Each inner wall 248 has opposite ends in the second direction 212, which are connected to the outer wall 246. The connections can be made at the transitions between the wide sides 244 and the narrow sides 242.

[0111] The frame 240 has a collar 250. The collar 250 is arranged at an upper edge of the frame 240. The collar 250 protrudes outwards. In particular, the collar 250 protrudes outwards beyond the outer wall 246. When the insert element 204 is inserted into the recess 206 of the base element 202, the collar 250 rests laterally on an upper end of the recess 206, i.e., at the transition of the recess 206 to the upper side 218 of the base element 202. In particular, the collar 250 is formed complementarily to the beveled or rounded section 230 of the recess 206. When the insert element 204 is inserted into the recess 206 of the base element 202, the collar 250 rests in the section 230.

[0112] The frame has two projections 252. The projections 252 are arranged on the outside of the frame 240. Each projection 252 protrudes outward from the outer wall 246 of the frame 240. In particular, one projection 252 is arranged on each of the narrow sides 242 of the frame 140. Each projection 252 is therefore arranged on a double-walled region of the frame 240 on the outer wall 246. Preferably, each projection 252 is spaced from the collar 250 in the vertical direction 214.

[0113] Each projection 252 serves as a spring device designed to hold the insert element in the recess 206 when inserted. For this purpose, each projection 252 is arranged such that it is pressed inward when the insert element 204 is inserted into the recess 206. In particular, the outer cross-sectional geometry of the frame 240 in the region of each projection 252 may be larger than the cross-sectional geometry of the recess 206 prior to insertion. When the insert element 204 is inserted into the recess 206 of the base element 202, the projections 252 are pressed inward, thereby clamping and holding the insert element 204 in the recess 206.

[0114] The insert element 204 may further comprise recesses in the frame 240. The recesses are preferably circular and may be arranged in the region of the wide sides 244 in the outer wall 246 or in the region of the narrow sides 242 in the inner wall 248. The insert element made of Fig. 15 has such circular recesses in the outer wall 246 in the area of ​​the broad sides 244 as well as on the inner walls in the area of ​​the narrow sides 242.

[0115] In the Figures 15 to 18 The inner cross-sectional geometry of the receptacle 208 is oval. In principle, however, the inner cross-sectional geometry of the receptacle 208 of the insert element 204 can be of any shape, as long as it is smaller than the outer cross-sectional geometry of the frame 240. In Fig. 19An insert element 204' is shown as an example. The insert element 204' differs from the insert element 204 in that the inner cross-sectional geometry of the receptacle 208 is oval. For this purpose, the frame 240 of the insert element 204' has a circumferential inner wall 248, which forms the oval shape. The inner wall is connected to the outer wall 246 via intermediate walls or webs. Fig. 19 six partition walls are shown, one in the middle of each broad side 244 and one at each corner of the rectangular outer shape.

[0116] In Fig. 20the arrangement of the insert element in the recess is shown in the inserted state. The cross-sectional geometry of the recess 206 is complementary to the outer cross-sectional geometry of the frame 240. In the inserted state, the outer cross-sectional geometry of the frame 240 essentially corresponds to the cross-sectional geometry of the recess 206. At least on the narrow sides 242, the outer cross-sectional geometry of the frame 240 is smaller than the cross-sectional geometry of the recess 206. In other words, each narrow side 242 is at least partially spaced from the edge of the recess. Only the projections 252 rest against the edge of the recess 206 in the region of the narrow sides 242. The projections 252 are pressed inwards, whereby the insert element 204 is held in the recess 206 by friction.

[0117] In Fig. 21A cosmetic or pharmaceutical object 254 is depicted. The object 254 is a bottle. The object 254 can be inserted into the receptacle 208 of the insert element 204. The object 254 has a rectangular cross-sectional geometry perpendicular to the vertical direction 214.

[0118] In Fig. 22 is transport container 200 made of Fig. 12 shown, wherein the cosmetic or pharmaceutical object 254 consists of Fig. 21 is inserted into the receptacle 208 of the insert element 204. The inner cross-sectional geometry of the receptacle 208 is complementary to the cross-sectional geometry of the cosmetic or pharmaceutical object 254.

[0119] Fig. 23shows an embodiment of a method designated in its entirety by the reference numeral 300. The method 300 serves to produce an insert element 104, 204 for a transport container 100, 200 for transporting a cosmetic or pharmaceutical object 154, 254. By means of the method 300, the insert element 104 of the transport container 100 of the first embodiment (in connection with the Figures 1 to 11 described) or the insert element 204 of the transport container 200 of the second embodiment (in connection with the Figures 12 to 22 described). The insert element 104, 204 has a receptacle 108, 208 configured to receive the cosmetic or pharmaceutical object 154, 254.

[0120] In a first step 302 of the method 300, a workpiece holder is provided.

[0121] In a second step 304 of method 300, the insert element 104, 204 is created on the workpiece holder using an additive process. In particular, in step 304, the frame 140, 240 of the insert element 104, 204 is created using the additive process.

[0122] Fig. 24 shows an embodiment of a method designated in its entirety by the reference numeral 400. The method 400 serves to produce a transport container 100, 200 for transporting a cosmetic or pharmaceutical object 154, 254. By means of the method 400, the transport container 100 of the first embodiment (in connection with the Figures 1 to 11 described) or the transport container 200 of the second embodiment (in connection with the Figures 12 to 22 described). The transport container 100, 200 has a base element 102 and an insert element 104.

[0123] In a first step 402 of the method 400, the insert element 104, 204 is produced by means of the method of Fig. 23 manufactured.

[0124] In a first step 404 of the method 400, the insert element 104, 204 is inserted into a recess 106, 206 of the base element 102, 202.

Claims

1. An insert element (104, 204) for a transport container (100, 200) for transporting a cosmetic or pharmaceutical object (154, 254), wherein the insert element (104, 204) comprises a receptacle (108, 208) configured to receive the cosmetic or pharmaceutical object (154, 254), wherein the insert element (104, 204) includes a frame (140, 240), wherein the frame (140, 240) encloses the receptacle (108, 208), wherein the frame (140, 240) is at least partially formed as a double wall, characterized in that the frame (140, 240) has one or more spring devices, wherein each spring device is arranged on an outer side of the frame (140, 240), and wherein each spring device is arranged in an area of the frame (140, 240) where the frame (140, 240) is formed as a double wall.

2. The insert element (104, 204) according to claim 1, wherein the insert element (104, 204) is formed in one piece.

3. The insert element (104, 204) according to claim 1 or 2, wherein the insert element (104, 204) is insertable into a recess (106, 206) of a base element (102, 202) of the transport container (100, 200).

4. The insert element (104, 204) according to any one of claims 1 to 3, wherein the receptacle (108, 208) has an inner cross-sectional geometry, in particular wherein the inner cross-sectional geometry is rectangular or oval.

5. The insert element (104, 204) according to any one of claims 1 to 4, wherein an outer side of the frame (140, 240) has an outer cross-sectional geometry, in particular wherein the outer cross-sectional geometry is rectangular or oval.

6. The insert element (104, 204) according to any one of claims 1 to 5, wherein the frame (140, 240) is formed as a double wall on at least two opposite sides of the receptacle (108, 208).

7. The insert element (104, 204) according to any one of claims 1 to 6, wherein the frame (140, 240) has a collar (150, 250) at its upper edge, wherein the collar (150, 250) protrudes outward.

8. The insert element (104, 204) according to any one of claims 1 to 7, wherein each spring device has a projection (152) that extends outward from an outer wall (146) of the frame (140), or is formed by an elastic region (252) of the frame (240).

9. The insert element (104, 204) according to claim 7, wherein each spring device is spaced apart from the collar (150, 250).

10. The transport container (100, 200) for transporting a cosmetic or pharmaceutical object (154, 254), wherein the transport container (100, 200) comprises a base element (102, 202) and the insert element (104, 204) according to any one of claims 1 to 9, wherein the base element (102, 202) has a recess (106, 206) into which the insert element (104, 204) is inserted.

11. Transport container (100, 200) according to claim 10, wherein the recess (106, 206) has a cross-sectional geometry, in particular wherein the cross-sectional geometry of the recess (106, 206) is oval or rectangular.

12. Transport container (100, 200) according to claim 11, wherein the cross-sectional geometry of the recess (106, 206) is complementary to the outer cross-sectional geometry of the frame (140, 240) of the insert element (104, 204).

13. Transport container (100, 200) according to claim 11 or 12, wherein the recess (106, 206) has a beveled or rounded section (130, 230) at an upper end, in particular wherein the collar (150, 250) of the frame (140, 240) of the insert element (104, 204) is formed complementary to the beveled or rounded section (130, 230) of the recess (106, 206).

14. A method (300) for manufacturing an insert element (104, 204) for a transport container (100, 200) for transporting a cosmetic or pharmaceutical object (154, 254), wherein the insert element (104, 204) comprises a receptacle (108, 208) configured to receive the cosmetic or pharmaceutical object (154, 254), wherein the method (300) comprises the following steps: • Providing (302) a workpiece holder; and • Creating (304) the insert element (104, 204) by means of an additive process on the workpiece holder, wherein the insert element (104, 204) includes a frame (140, 240), wherein the frame (140, 240) encloses the receptacle (108, 208), wherein the frame (140, 240) is formed at least partially as a double wall, wherein the frame (140, 240) has one or more spring devices, characterized in that each spring device is arranged on an outer side of the frame (140, 240), wherein each spring device is arranged in an area of the frame (140, 240) where the frame (140, 240) is formed as a double wall.

15. A method (400) for manufacturing a transport container (100, 200) for transporting a cosmetic or pharmaceutical object (154, 254), wherein the transport container (100, 200) comprises a base element (102, 202) and an insert element (104, 204), wherein the method (400) comprises the following steps: • Manufacturing (402) the insert element (104, 204) by means of the method (300) according to claim 14; and • Inserting (404) the insert element (104, 204) into a recess (106, 206) of the base element (102, 202).