Abstract: Techniques for sharing style information between different applications and/or devices are provided. A document is displayed in a first window of a first application. The document includes user-selectable portions that each comprises at least one style information item. A menu is displayed in a second window. The menu provides a mechanism to store at least one style information item from the user-selectable portions. In response to a user selecting a user-selectable portion, menu options are provided in the menu to store at least one style information item for the selected user-selectable portion. The menu options are determined based on the style information item corresponding to the selected user-selectable portion. In response to the user selecting a menu option, the style information item corresponding to the selected menu option is stored.

Abstract: Techniques for sharing design elements between different applications and/or devices are provided. A design element is received from a first application as multiple representations, each of the multiple representations corresponding to a complementary storage format for the design element based on a design element type. The design element is stored as the multiple representations in a centrally stored library, the centrally stored library being shared among a plurality of applications. An indication to use the design element in a second application may be received. At least one of the multiple representations may be returned, as determined by the second application.

Abstract: Techniques for sharing style information between different applications and/or devices are provided. A document is displayed in a first window of a first application. The document includes user-selectable portions that each comprises at least one style information item. A menu is displayed in a second window. The menu provides a mechanism to store at least one style information item from the user-selectable portions. In response to a user selecting a user-selectable portion, menu options are provided in the menu to store at least one style information item for the selected user-selectable portion. The menu options are determined based on the style information item corresponding to the selected user-selectable portion. In response to the user selecting a menu option, the style information item corresponding to the selected menu option is stored.

Abstract: Techniques for sharing design elements between different applications and/or devices are provided. A design element is received from a first application as multiple representations, each of the multiple representations corresponding to a complementary storage format for the design element based on a design element type. The design element is stored as the multiple representations in a centrally stored library, the centrally stored library being shared among a plurality of applications. An indication to use the design element in a second application may be received. At least one of the multiple representations may be returned, as determined by the second application.

Abstract: A method includes providing a measured dose amount of manufactured metallic nanoparticle material and adding the measured dose amount of the manufactured metallic nanoparticle material to a carrier material for pre-treatment of the carrier material prior to use of the carrier material and the manufactured metallic nanoparticle material in the sub-surface earth activity. Another method includes accessing a sub-surface earth opening that is used in conjunction with the sub-surface earth activity, introducing an amount of manufactured metallic nanoparticle material into the sub-surface earth opening, and treating a sub-surface earth condition present at a sub-surface earth location accessible via the sub-surface earth opening. The sub-surface earth condition is treated with the manufactured metallic nanoparticle material.

Abstract: A method includes providing and adding a measured dose amount of manufactured metallic nanoparticle material to a carrier material for pre-treatment of the carrier material prior to use of the carrier material and the manufactured metallic nanoparticle material in the sub-surface earth activity. Another method includes accessing a sub-surface earth opening used with a sub-surface earth activity, introducing an amount of manufactured metallic nanoparticle material into the sub-surface earth opening, and treating a sub-surface earth condition present at a sub-surface earth location accessible via the sub-surface earth opening. The sub-surface earth condition is treated with the manufactured metallic nanoparticle material. Another method includes accessing a product from a sub-surface earth location that is extracted in conjunction with the sub-surface earth activity, measuring and introducing a dose amount of manufactured metallic nanoparticle material with the product from the sub-surface earth location.

Abstract: A method includes providing and adding a measured dose amount of manufactured metallic nanoparticle material to a carrier material for pre-treatment of the carrier material prior to use of the carrier material and the manufactured metallic nanoparticle material in the sub-surface earth activity. Another method includes accessing a sub-surface earth opening used with a sub-surface earth activity, introducing an amount of manufactured metallic nanoparticle material into the sub-surface earth opening, and treating a sub-surface earth condition present at a sub-surface earth location accessible via the sub-surface earth opening. The sub-surface earth condition is treated with the manufactured metallic nanoparticle material. Another method includes accessing a product from a sub-surface earth location that is extracted in conjunction with the sub-surface earth activity, measuring and introducing a dose amount of manufactured metallic nanoparticle material with the product from the sub-surface earth location.