An artificial Christmas tree includes an elongated trunk extending between proximal and distal ends thereof. A base may support the trunk of the artificial tree in an upright position relative to floor. The proximal end of the trunk may be coupled to the base and the distal end of the trunk extending outwardly from the base. A plurality of frame sections may extend circumferentially around the trunk and being moveable in an axial direction relative to the trunk. Each frame section may extend longitudinally between axially spaced apart ends thereof and being connected with at least one other frame section, whereby axial movement of a given frame section along the trunk causes corresponding axial movement of each other frame section to which the given frame section is connected.

A system comprises a tube having an inner diameter that is dimensioned to receive an artificial Christmas tree within the tube, the tree having upwardly collapsible branches. The tube is open at a first end and at a second end. An axle may couple to the tube, and a plurality of wheels may couple to the axle. The wheels may be tri-lobe wheels. A securement strap structure is located at the second end and is perpendicular to the second end of the tube to secure the second end of the tube and the base structure of the artificial tree. The system can position the tube at an angle relative to the horizontal to insert the tree within the tube. The system can also position the tube horizontally to extract the tree from the tube.

An artificial Christmas tree includes a central trunk broken into at least two separate portions including a fixed trunk portion and at least one rotating trunk portion. The fixed trunk extends up from an underlying base. Rotating trunks rotatably attach at midpoints thereof at least indirectly to an upper end of the fixed trunk. Limbs are pivotably attached to the rotating trunks with optional lights coupled thereto. These limbs pivot between a perpendicular orientation extending from the rotating trunks and a collapsed configuration closer to a centerline of the rotating trunks. The rotating trunks can be pivoted from a first collapsed configuration with a first end above a second end to a deployed configuration with the second end above the first end. During pivoting, the limbs attached to the rotating trunk transition between a collapsed to a deployed configuration automatically. A wheeled base and cover further facilitate storage and deployment.

A system comprises a tube having an inner diameter that is dimensioned to receive an artificial Christmas tree within the tube, the tree having upwardly collapsible branches. The tube is open at a first end and at a second end. An axle may couple to the tube, and a plurality of wheels may couple to the axle. The wheels may be tri-lobe wheels. A securement strap structure is located at the second end and is perpendicular to the second end of the tube to secure the second end of the tube and the base structure of the artificial tree. The system can position the tube at an angle relative to the horizontal to insert the tree within the tube. The system can also position the tube horizontally to extract the tree from the tube.

An artificial Christmas tree includes a central trunk broken into at least two separate portions including a fixed trunk portion and at least one rotating trunk portion. The fixed trunk extends up from an underlying base. Rotating trunks rotatably attach at midpoints thereof at least indirectly to an upper end of the fixed trunk. Limbs are pivotably attached to the rotating trunks with optional lights coupled thereto. These limbs pivot between a perpendicular orientation extending from the rotating trunks and a collapsed configuration closer to a centerline of the rotating trunks. The rotating trunks can be pivoted from a first collapsed configuration with a first end above a second end to a deployed configuration with the second end above the first end. During pivoting, the limbs attached to the rotating trunk transition between a collapsed to a deployed configuration automatically. A wheeled base and cover further facilitate storage and deployment.

Apparatuses and methods for a self-deploying tree are disclosed. In an exemplary embodiment, a self-deploying tree system comprises a top tree assembly, a main tree assembly, and a base. The lower end of the top tree assembly may be coupled to the upper end of the main tree assembly, and the lower end of the main tree assembly may be coupled to the base, providing a vertical orientation of the self-deploying tree system. The self-deploying tree system further comprises a deployment mechanism which may be activated to automatically convert the tree from a collapsed configuration to a deployed configuration or from a deployed configuration to a collapsed configuration. The collapsed configuration comprises a reduced height and a reduced circumference to allow for ease of handling and storage. The deployed configuration provides for the tree to be extended to a desired height and for deployment of the limbs as desired for display.

An artificial Christmas tree includes a central trunk broken into at least two separate portions including a fixed trunk portion and at least one rotating trunk portion. The fixed trunk extends up from an underlying base. Rotating trunks rotatably attach at midpoints thereof at least indirectly to an upper end of the fixed trunk. Limbs are pivotably attached to the rotating trunks with optional lights coupled thereto. These limbs pivot between a perpendicular orientation extending from the rotating trunks and a collapsed configuration closer to a centerline of the rotating trunks. The rotating trunks can be pivoted from a first collapsed configuration with a first end above a second end to a deployed configuration with the second end above the first end. During pivoting, the limbs attached to the rotating trunk transition between a collapsed to a deployed configuration automatically. A wheeled base and cover further facilitate storage and deployment.

Apparatuses and methods for a self-deploying tree are disclosed. In an exemplary embodiment, a self-deploying tree system comprises a top tree assembly, a main tree assembly, and a base. The lower end of the top tree assembly may be coupled to the upper end of the main tree assembly, and the lower end of the main tree assembly may be coupled to the base, providing a vertical orientation of the self-deploying tree system. The self-deploying tree system further comprises a deployment mechanism which may be activated to automatically convert the tree from a collapsed configuration to a deployed configuration or from a deployed configuration to a collapsed configuration. The collapsed configuration comprises a reduced height and a reduced circumference to allow for ease of handling and storage. The deployed configuration provides for the tree to be extended to a desired height and for deployment of the limbs as desired for display.

An artificial Christmas tree includes a central trunk broken into at least two separate portions including a fixed trunk portion and at least one rotating trunk portion. The fixed trunk extends up from an underlying base. Rotating trunks rotatably attach at midpoints thereof at least indirectly to an upper end of the fixed trunk. Limbs are pivotably attached to the rotating trunks with optional lights coupled thereto. These limbs pivot between a perpendicular orientation extending from the rotating trunks and a collapsed configuration closer to a centerline of the rotating trunks. The rotating trunks can be pivoted from a first collapsed configuration with a first end above a second end to a deployed configuration with the second end above the first end. During pivoting, the limbs attached to the rotating trunk transition between a collapsed to a deployed configuration automatically. A wheeled base and cover further facilitate storage and deployment.

The artificial tree is collapsible by inverting a main trunk thereof to swap positions of a first end and second end. The limbs are pivotably attached to the main trunk so that they sag under force of gravity from a deployed more horizontally extending orientation to a collapsed more vertically extending orientation when the main trunk is inverted. A base is preferably provided which has wheels and static portions in contact with the ground for supporting the tree thereon. A riser extending up from the base is configured to have an end of the main trunk rest therein. A lock is also preferably provided to hold an end of the trunk within the riser of the base. A separate treetop portion is removably attachable to ends of the trunk to complete the tree when in a deployed configuration and for storage of the treetop when the tree is not collapsed.