A method of knitting a knitted component for an upper of an article of footwear is provided. The method may include using a flat knitting machine. The upper may be configured to receive a foot of a wearer. The method may include performing a pass of at least one yarn feeder along the longitudinal axis relative to first and second needle beds, feeding at least one yarn with the at least one feeder during the pass, forming, during the pass, a plurality of first loops with the first needles to define a first portion of the knitted component, and forming, during the pass, a plurality of second loops with the second needles to define a second portion of the knitted component.

In one aspect, the present disclosure provides a knitted component comprising a course with a plurality of loops. An inlaid strand formed of a second yarn may be included in the knitted component. A first portion of the course may be formed with a first yarn and a second portion of the course may be formed with the second yarn. The inlaid strand may be inlaid within the first portion of the course.

In one aspect, methods of making a knitted shoe component are described herein. In some embodiments, a method comprises knitting one or more fibers to form a toe portion; knitting one or more fibers to form a first wing portion; and knitting one or more fibers to form a second wing portion. The first and second wing portions extend from the toe portion and are knittingly connected to the toe portion. The method further comprises reducing the lateral separation between the first and second wing portions from an initial separation distance to a knitting separation distance such that the wing portions can be knitted together to form a seamless heel portion of the shoe component, including using a series of stitch transfer, racking, and knitting steps.

An article of footwear and a variety of other products may incorporate a knitted component. An inlaid strand extends through the knitted component. A combination feeder may be utilized to inlay the strand within the knitted component. As an example, the combination feeder may include a feeder arm that reciprocates between a retracted position and an extended position. In manufacturing the knitted component, the feeder inlays the strand when the feeder arm is in the extended position, and the strand is absent from the knitted component when the feeder arm is in the retracted position.

Disclosed herein is a double-knit flat-knit engineered fabric, having multiple modulus zones that have different fabric densities, different fabric weights, different stitch sequences and different knit structures that are all seamlessly integrated into a single product to create a bra/bralette or a bra-component which may be selected from one or more of a bra cup region, a bottom band, a wing area, and a back portion of a bra.

Aspects herein are directed to a bra having a front portion with a double-knit structure having different ratios of float stitches to tuck stitches within intermediate courses within the double-knit structure. The front portion includes a Y-shaped region and a first breast-contacting region, where intermediate courses have a greater ratio of float stitches to tuck stitches within the Y-shaped region than within the first breast-contacting region.

Aspects herein are directed to a bra having a front portion with a double-knit structure having different ratios of float stitches to tuck stitches within intermediate courses within the double-knit structure. The front portion includes a Y-shaped region and a first breast-contacting region, where intermediate courses have a greater ratio of float stitches to tuck stitches within the Y-shaped region than within the first breast-contacting region.