226 results about "Vertical translation" patented technology

A work enclosure, and in particular a system for low temperature storage that includes a chest provided with a refrigerator unit. The chest has a top plate provided with a plurality of openings each suitable for allowing a support for at least one container of an article for storage to be passed therethrough, the support presenting a working storage height no greater than the height of the chest, and the top of the support is provided with an element of shape matching the shape of the opening so as to close it once the support has been fully inserted through the opening. In some embodiments, automation elements are provided above the top plate of the chest for moving the supports at least in vertical translation so as to enable supports to be inserted and withdrawn via the openings of the chest.

A shelving assembly including a frame including a plurality of support columns. A shelf unit includes a plurality of sides disposed inside the frame. A gear assembly is disposed adjacent to one of the plurality of sides of the shelf unit. The gear assembly includes a drive shaft, a translational shaft and a translational gear disposed on a distal end of the translational shaft. A vertically-extending toothed rack is positioned on the frame. The vertically-extending toothed rack is operably engaged with the translational gear such that rotation of the drive shaft causes rotation of the translational shaft and rotation of the translational gear, which results in vertical translation of the shelf unit.

An X-ray recording device has an X-ray detector and an X-ray emitter aligned with one another on a mobile supporting device, the supporting device being supported by retainer on a stand unit and being displaceable along a horizontal translation axis and / or vertical translation axis. The retainer has only one first pivoting arm rotatably mounted on the stand unit for rotation around a first vertical rotational axis and only one second pivoting arm rotatably mounted on the first pivoting arm for rotation around a second vertical rotational axis. This X-ray recording device allows an alteration to the recording range to be undertaken at reduced cost and with a space-saving and stable configuration.

One embodiment of the present invention is a compact, low-cost, lightweight, versatile and easy-to-operate, processor-controlled carving and multi-purpose shaping device (“PCCMPS machine”). The PCCMPS machine that represents one embodiment of the present invention is configured, in part, similarly to common, commercially available portable wood planers and ubiquitous laser and ink-jet computer printers, with work pieces fed into the PCCMPS machine in a horizontal direction. The PCCMPS machine includes a motor-powered cutting head that can power detachable bits to drill, cut, shape, and rout a work piece under processor and computer control. The cutting head may be translated, under processor control, back and forth across the surface of the work piece in a direction perpendicular to the direction in which the work piece is fed into the PCCMPS machine and moved by motor-powered rollers. The cutting head may be translated up and down, in a vertical direction, approximately perpendicular to the surface of the work piece. The processor can thus position a cutting bit at any point on a surface of, near the surface of, or within the work piece, via a combination of lateral and vertical translations of the cutting head and horizontal translation of the work piece, and can control the speed at which the bit rotates as the computer moves the rotating bit from one position to another position relative to the surface of the work piece in order to carve and shape elaborate, three-dimensional designs onto the work piece.

The invention relates to a method and apparatus for treatment of a solid tumor. More particularly, the invention comprises a multi-axis and / or multi-field charged particle cancer therapy system. In one embodiment, the tumor is imaged from multiple directions in phase with patient respiration. The two-dimensional images are combined to produce a three-dimensional picture of the tumor relative to patient features. The resulting three-dimensional image is used in generation of a radiation treatment plan and subsequent radiation therapy with the radiation beam in terms of control of two-dimensional beam trajectory, delivered beam energy, delivered beam intensity, and / or beam velocity each as a function of patient vertical translation position, patient rotation position, and / or patient respiration.