Abstract: Provided herein are graphene materials, fabrication processes, and devices with improved performance and a high throughput. In some embodiments, the present disclosure provides graphene oxide (GO) materials and methods for forming GO materials. Such methods for forming GO materials avoid the shortcomings of current forming methods, to facilitate facile, high-throughput production of GO materials.

Abstract: Energy storage devices are disclosed. In some embodiments, the energy storage devices comprise a positive electrode comprising a carbon-based material comprising porous carbon sheet(s). Fabrication processes for manufacturing the energy storage devices are disclosed.

Abstract: Provided herein are graphene materials, fabrication processes, and devices with improved performance and a high throughput. In some embodiments, the present disclosure provides graphene oxide (GO) materials and methods for forming GO materials. Such methods for forming GO materials avoid the shortcomings of current forming methods, to facilitate facile, high-throughput production of GO materials.

Abstract: Provided herein are carbon-based oxide (CBO) materials and reduced carbon-based oxide (rCBO) materials, fabrication processes, and devices with improved performance and a high throughput. In some embodiments, the present disclosure provides materials and methods for synthesizing CBO and rCBO materials. Such methods avoid the shortcomings of current synthesizing methods to facilitate facile, high-throughput production of CBO and rCBO materials.

Abstract: Provided herein are graphene materials, fabrication processes, and devices with improved performance and a high throughput. In some embodiments, the present disclosure provides graphene oxide (GO) materials and methods for forming GO materials. Such methods for forming GO materials avoid the shortcomings of current forming methods, to facilitate facile, high-throughput production of GO materials.

Abstract: Energy storage devices are disclosed. In some embodiments, the energy storage devices comprise a positive electrode comprising a carbon-based material comprising porous carbon sheet(s). Fabrication processes for manufacturing the energy storage devices are disclosed.

Abstract: Energy storage devices are disclosed. In some embodiments, the energy storage devices comprise a positive electrode comprising a carbon-based material comprising porous carbon sheet(s). Fabrication processes for manufacturing the energy storage devices are disclosed.

Abstract: Provided herein are graphene materials, fabrication processes, and devices with improved performance and a high throughput. In some embodiments, the present disclosure provides graphene oxide (GO) materials and methods for forming GO materials. Such methods for forming GO materials avoid the shortcomings of current forming methods, to facilitate facile, high-throughput production of GO materials.

Abstract: Energy storage devices are disclosed. In some embodiments, the energy storage devices comprise a positive electrode comprising a carbon-based material comprising porous carbon sheet(s). Fabrication processes for manufacturing the energy storage devices are disclosed.

Abstract: Provided herein are carbon-based oxide (CBO) materials and reduced carbon-based oxide (rCBO) materials, fabrication processes, and devices with improved performance and a high throughput. In some embodiments, the present disclosure provides materials and methods for synthesizing CBO and rCBO materials. Such methods avoid the shortcomings of current synthesizing methods to facilitate facile, high-throughput production of CBO and rCBO materials.

Abstract: A plug connector is provided for mating with a jack connector. The plug connector includes a base and a tubular member extending from the base. The tubular member includes a contact area, a terminal end composed of a conductive material and being distal to the base and a spring. The terminal end is insulated from the contact area and may have a circumferential groove located thereon. A core may be disposed within the tubular member and has an insulative material disposed about at least one signal conductor. A jack connector is also provided for receiving, for example, the foregoing plug connector and the jack connector includes a body which has a cavity and a first plurality of electrical contacts disposed within the cavity and configured to be engageable with the tubular member. A second plurality of electrical contacts may also be disposed within the cavity and are also configured to be engageable with the tubular member.

Abstract: A plug connector is provided for mating with a jack connector. The plug connector includes a base and a tubular member extending from the base. The tubular member includes a contact area, a terminal end composed of a conductive material and being distal to the base and a spring. The terminal end is insulated from the contact area and may have a circumferential groove located thereon. A core may be disposed within the tubular member and has an insulative material disposed about at least one signal conductor. A jack connector is also provided for receiving, for example, the foregoing plug connector and the jack connector includes a body which has a cavity and a first plurality of electrical contacts disposed within the cavity and configured to be engageable with the tubular member. A second plurality of electrical contacts may also be disposed within the cavity and are also configured to be engageable with the tubular member.

Abstract: A plug connector is provided for mating with a jack connector. The plug connector includes a base and a tubular member extending from the base. The tubular member includes a contact area, a terminal end composed of a conductive material and located distal to the base and a spring. The terminal end is insulated from the contact area and may have a circumferential groove located thereon. A core may be disposed within the tubular member and has an insulative material disposed about at least one signal conductor. A jack connector is also provided for receiving, for example, the foregoing plug connector and the jack connector includes a body which has a cavity and a first plurality of electrical contacts disposed within the cavity and configured to be engageable with the tubular member. A second plurality of electrical contacts may also be disposed within the cavity and are also configured to be engageable with the tubular member.