Systems and methods of determining spinal column and or leg length abnormalities includes taking digital photographs of multiple data points along the length of the person's spine and legs, and sending the photographs to a computer with a processor programmed with software that analyzes the photographs to determine leg length and spinal column length and spinal column curvature. The data regarding the leg length and curvature is sent to a medical professional for diagnosis and treatment of the patient.

Systems and processes for measuring and sizing a foot are provided. In one exemplary process, at least one image of a foot and a horizontal reference object from a first point of view is captured. A portion of the foot may be disposed against a vertical reference object. The at least one image may be displayed, where one or more camera guides are overlaid on the at least one displayed image. In response to aligning the one or more camera guides with one or more of the horizontal reference object and the vertical reference object, a measurement of the foot based on the at least one captured image from the first point of view is determined.

Provided is a device for measuring at least one dimension of an object. The device includes at least one body configured to be arranged along, or around, the object. The, or each, body carries an elongate stretchable waveguide and is configured to allow stretching the waveguide along its length when arranged along, or around, the object. The, or each, waveguide is associated with a sensor. The, or each, sensor includes a light emitter arranged and operable to emit at least one light pulse through the associated waveguide, and a light detector arranged to receive the at least one light pulse conveyed through the waveguide. The device also includes a communication module communicatively coupled with the, or each, sensor, and configured to communicate measurement data from the, or each, sensor to a processor to allow determining the at least one dimension. Systems and methods for measuring at least one dimension of an object are also disclosed.

A system for capturing a plantar image is provided, which is based on a depth sensor or 3D image capturing device connected to a portable structure having: first legs; a first frame that holds a glass pane; and an elastic membrane on which a patient places his or her foot, making contact with the glass pane positioned there below, in the manner of a floor, to capture the plantar image by means of the depth sensor disposed beneath the glass pane. Respective platforms provided with a pair of second legs can be joined to the first frame. A system is provided that includes a transparent floor in a portable structure that allows the assembly to be transported so as to be able to capture the patient's plantar image in any desired place.

A process and system allow for rapid customization and fabrication of the midsole layer of a shoe for the mass manufacturing of shoes with custom midsoles. A partially manufactured shoe is made, a style is selected by the wearer, and a custom midsole is rapidly designed, and incorporated in the partially manufactured shoe style selected by the wearer. Also, in some shoes, reorganization relocates the midsole to the interior of the shoe during manufacturing.

Systems and methods are disclosed for recommending products or services by receiving a three-dimensional (3D) model of one or more products; performing motion tracking and understanding an environment with points or planes and estimating light or color in the environment; and projecting the product in the environment.

Provided is an insole that can check the operation of a sensor and accurately and quickly connect with a user terminal, the user terminal and a pairing method thereof. The method for pairing an insole comprises scanning an insole, in which at least one pressure sensor and tactile element are installed, providing a vibration command to the scanned insole to vibrate a tactile element of the scanned insole, and pairing the insole including the vibrating tactile element and a user terminal.

A method of producing a customized shoe last for individual fitting and shaping of the inner surface of the shoe includes production of a shoe last based on a precise shape and size of the digital foot model. The actual physical shape of the foot is converted into a foot model using 3D scanning. The digital foot model is divided into parts required for insertion and functioning of a mechanism, and simulation of the bend in the metatarsophalangeal and ankle joints. The parts of the foot obtained by dividing the digital model are then manufactured. An extendable mechanism to move the parts of the shoe last against each other in three axes of coordinates is developed, based the produced parts, an individual shoe last is manufactured in the form of a physical foot model, configured for personal fitting and shaping of an inner surface of the shoe.

Various articles, such as footwear, apparel, athletic equipment, watchbands, and the like, and methods of forming those articles are presented. The articles are generally formed, in whole or in part, using rapid manufacturing techniques, such as laser sintering, stereolithography, solid deposition modeling, and the like. The use of rapid manufacturing allows for relatively economical and time efficient manufacture of customized articles. Portions of the articles may be manufactured using rapid manufacturing and those portions may be joined with portions formed using conventional, non-rapid manufacturing techniques. The methods may also include performing a scan of an appropriate body part of a user, such as a foot, in order to create a customized article of footwear for the user.

A method for measuring shoe comfort level is provided. A 3D polygonal model of a foot is constructed from an array of images taken from multiple angles of the foot and leg. Each vertex point is loaded with foot anthropometric sensitive characteristics information. A 3D model of a shoe's inner space is constructed with a scanning device having various opening modes. Each of shoe inner space vertex points is complimented by shoe data such as material type, rigidity, structure, vamp and shoelaces. The 3D polygonal foot model and the vertex inner shoe space model are fitted together and the comfort level for the foot is defined with the simulation of movement.