The technology described herein relates to a system and device for saturating an absorbent wicking nib with colored ink supplied by an ink pad having a well configured to receive a portion of the sidewall of the nib. Different colors of ink can be transferred to different portions of the nib sidewall to result in a multicolor marker nib.

The technology described herein relates to a system and device for saturating an absorbent wicking nib with colored ink supplied by an ink pad having a well configured to receive a portion of the sidewall of the nib. Different colors of ink can be transferred to different portions of the nib sidewall to result in a multicolor marker nib.

The technology described herein relates to a system and device for saturating an absorbent wicking nib with colored ink supplied by an ink pad having a well configured to receive a portion of the sidewall of the nib. Different colors of ink can be transferred to different portions of the nib sidewall to result in a multicolor marker nib.

The technology described herein relates to a system and device for saturating an absorbent wicking nib with colored ink supplied by an ink pad having a well configured to receive a portion of the sidewall of the nib. Different colors of ink can be transferred to different portions of the nib sidewall to result in a multicolor marker nib.

Embodiments of the invention are directed to a multi-component nib structure and marking device for selectively generating primary marks and a secondary marks for lettering and shading. The marking device includes a multi-component nib structure, an ink source. The multi-component nib structure generally includes a first nib component, a second nib component, and optionally, a transfer component between the first nib component and the second nib component. In other aspects, the multi-component nib structure may allow lettering with different tones creating, for example, an ombre effect.

Embodiments of the invention are directed to a multi-component nib structure and marking device for selectively generating primary marks and a secondary marks for lettering and shading. The marking device includes a multi-component nib structure, an ink source. The multi-component nib structure generally includes a first nib component, a second nib component, and optionally, a transfer component between the first nib component and the second nib component. In other aspects, the multi-component nib structure may allow lettering with different tones creating, for example, an ombre effect.

Dry erase ink formulations containing at least one colorant encapsulated in a plurality of capsules wherein the capsules comprise a release agent, methods of erasing dry erase ink formulations, and writing instruments including a writing tip portion connected to a tubular member or refill and a dry erase ink formulation are provided herein.

Dry erase ink formulations containing at least one colorant encapsulated in a plurality of capsules wherein the capsules comprise a release agent, methods of erasing dry erase ink formulations, and writing instruments including a writing tip portion connected to a tubular member or refill and a dry erase ink formulation are provided herein.

The technology described herein relates to a system and device for saturating an absorbent wicking nib with at least two inks transferred from at least two ink donor structures, to provide a multicolor marker nib. In aspects, a wicking nib device is configured to orient the saturated marking nibs of two different-colored, saturated marker nibs directly adjacent opposing side portions of a porous wicking nib, such that the porous wicking nib simultaneously wicks ink from both contacted marker nibs to create a dual-color marking nib. The wicking nib device may include an aperture for viewing the wicking action.

The technology described herein relates to a system and device for saturating an absorbent wicking nib with at least two inks transferred from at least two ink donor structures, to provide a multicolor marker nib. In aspects, a wicking nib device is configured to orient the saturated marking nibs of two different-colored, saturated marker nibs directly adjacent opposing side portions of a porous wicking nib, such that the porous wicking nib simultaneously wicks ink from both contacted marker nibs to create a dual-color marking nib. The wicking nib device may include an aperture for viewing the wicking action.