A package includes a main body and an impact buffer rib. The main body is configured to form a storage space to accommodate a packaged object. The impact buffer rib is disposed on a side of the main body and outside the storage space. The impact buffer rib includes root portions and a central portion. The root portions are both end portions of the impact buffer rib, couple to the main body, and have a first height. The central portion is between the root portions and has a second height larger than the first height.

A carrying case designed to transport tablescape items in smaller sub-containers nested within is disclosed. The carrying case includes a hardshell case, that includes a lid and base. The hardshell case is constructed of a rigid exterior and a padded interior. The carrying case additionally includes configured to be inserted into a cavity in the base. When inserted, the modular containers occupy substantially all of the available space in the cavity.

A carrying case designed to transport tablescape items in smaller sub-containers nested within is disclosed. The carrying case includes a hardshell case, that includes a lid and base. The hardshell case is constructed of a rigid exterior and a padded interior. The carrying case additionally includes configured to be inserted into a cavity in the base. When inserted, the modular containers occupy substantially all of the available space in the cavity.

The invention relates to a method for manufacturing a sensor element or an active component of a sensor element. The sensor element is applied in a field device of automation technology. The method comprises the following method steps: predetermining at least two materials with different physical and chemical properties depending on a functionality of the sensor element or the active component of the sensor element; predetermining an outer shape, into which the at least two materials should be formed, the outer shape being divided into a plurality of virtual spatial regions, wherein in each virtual spatial region the material distribution of the at least two materials occurs homogeneously and periodically according to predetermined rules corresponding to a microstructure. The method also includes steps of ascertaining the predetermined rules via a computer supported method depending on the predetermined functionality of the sensor element or the active component of the sensor element.

A shield system for protecting a curved object is described. The system comprises at least one flexible pad. The at least one flexible pad comprises a spacing ridge (7) projecting at an angle from a first major surface (3) of the pad for providing a spacing between the first major surface and a support ridge (9) projecting from the first major surface and extending transverse to the spacing ridge. The support ridge comprises a flexure region (11) adapted to unbend in the event that the pad is curved about an axis aligned with the spacing ridge to inhibit strain in the support ridge from causing deflection of the spacing ridge.

A shield system for protecting a curved object is described. The system comprises at least one flexible pad. The at least one flexible pad comprises a spacing ridge (7) projecting at an angle from a first major surface (3) of the pad for providing a spacing between the first major surface and a support ridge (9) projecting from the first major surface and extending transverse to the spacing ridge. The support ridge comprises a flexure region (11) adapted to unbend in the event that the pad is curved about an axis aligned with the spacing ridge to inhibit strain in the support ridge from causing deflection of the spacing ridge.

A support and stabilization base includes an outer casing, a compartment within the outer casing, and a flowing substance within the compartment, flowing substance deforms when acted upon by an external force. The outer casing is constructed of a pliable material or combination of materials. The bottom of the outer casing is configured to conform to a surface.

A support and stabilization base includes an outer casing, a compartment within the outer casing, and a flowing substance within the compartment, flowing substance deforms when acted upon by an external force. The outer casing is constructed of a pliable material or combination of materials. The bottom of the outer casing is configured to conform to a surface.

Disclosed is a smart device housing configured to fixably attach to a beverage vessel having a domed surface at a distal end, the domed surface adjacent a wall terminating at a lip, the smart device housing including an exterior configured as a transformable shape enabling a locking fit between the lip and the domed surface of the beverage vessel. Also disclosed is a system wherein a smart device has at least one proximity, image or distance sensor having a beam of detection with a path, the sensor located and directed such the beam of detection covers a location where a coupler can be attached to the beverage vessel, the smart device configured to determine whether the coupler is attached to the beverage vessel by measuring whether the path is obstructed by the coupler. Also disclosed is a method of determining the fill status of a beverage container.

A support beam, configured to support a first side and a second side of a transport container, includes a first support member and a second support member. The first support member includes a first flange configured to engage the first side of the transport container. The second support member includes a second flange configured to engage the second side of the transport container. The first support member and the second support member are connected via a movable coupling which is capable of adjusting a cumulative length of the support beam to adjust to various size transport containers.