Abstract: Techniques for forking and merging of electronically presented content items, such as MMO and other video games, are described herein. In particular, a first content item session may be forked to generate a second (forked) content item session. The first and forked content item sessions may then continue to execute and evolve in separate directions from one another. In some examples, a user of the forked content item session may serve as an administrator of the forked content item session and may receive compensation in exchange for serving as an administrator. Additionally, one or more forked or other separate content item sessions may be merged together to form a merged content item session. In some examples, conflicts between merged content item sessions may be identified and resolved based, at least in part, on input from administrators.

Abstract: The disclosed techniques may employ components referred to herein as atoms for computing and maintaining of states. Unlike traditional actors, atoms may be capable of binding to other atoms to form a bound combination of atoms, referred to herein as a molecule. In some examples, while bound to other atoms, an atom may operate in a manner that is different from traditional actors. For example, in some cases, atoms that are bound to one another may be prohibited from concurrently performing different operations on their own separate states. Additionally, bound atoms may be operable to collectively (e.g., synchronously) perform shared operations on their associated states. Furthermore, a shared operation performed on the states of bound atoms may be performed atomically. Also, in some examples, bound atoms may be capable of communicating synchronously with one another and of synchronously accessing each other's states.

Abstract: Techniques for forking and merging of electronically presented content items, such as MMO and other video games, are described herein. In particular, a first content item session may be forked to generate a second (forked) content item session. The first and forked content item sessions may then continue to execute and evolve in separate directions from one another. In some examples, a user of the forked content item session may serve as an administrator of the forked content item session and may receive compensation in exchange for serving as an administrator. Additionally, one or more forked or other separate content item sessions may be merged together to form a merged content item session. In some examples, conflicts between merged content item sessions may be identified and resolved based, at least in part, on input from administrators.

Abstract: Systems and methods for providing display data indicative of trend data include providing, at a server, a set of queries for product content, wherein the product content comprises attributes of a product; receiving, at the server, a request to sort results from the set of queries based on the attribute and on a time period; generating a value based on the sorted query results and the time period; aggregating each value for each time period with values from other results from other queries within the time period; storing the aggregated value in a database; retrieving the stored value to determine trend data relating to the product content; and providing display data indicative of the trend data.

Abstract: A method for forming an image sensing device is disclosed. An epitaxy layer having the first conductivity type is formed on a substrate, wherein the epitaxy layer comprises a first pixel area corresponding to a first incident light, a second pixel area corresponding to a second incident light, and a third pixel area corresponding to a third incident light. A first deep well is formed in a lower portion of the epitaxy layer for reducing pixel-to-pixel talk of the image sensing device. A second deep well is formed in a lower portion of the epitaxy layer.

Abstract: An image sensing device is disclosed, including an epitaxy layer having the a conductivity type, including a first pixel area corresponding to a first incident light, a second pixel area corresponding to a second incident light, and a third pixel area corresponding to a third incident light, wherein the wavelength of the first incident light is longer than that of the second incident light and the wavelength of the second incident light is longer than that of the third incident light. A photodiode is disposed in an upper portion of the epitaxy layer, and a first deep well for reducing pixel-to-pixel talk of the image sensing device is disposed in a lower portion of the epitaxy layer in the second pixel area and the third pixel area, wherein at least a portion of the epitaxy layer in first pixel area does not include the first deep well.

Abstract: A fabricating method of an image sensor includes the steps of: providing a substrate; forming sensing elements on the substrate; forming microlenses on the sensing elements; filling a stuffed material on the microlenses, and air regions are formed in the stuffed material; and forming optical filters on the stuffed material.

Abstract: An image sensing device is disclosed, including an epitaxy layer having the a conductivity type, including a first pixel area corresponding to a first incident light, a second pixel area corresponding to a second incident light, and a third pixel area corresponding to a third incident light, wherein the wavelength of the first incident light is longer than that of the second incident light and the wavelength of the second incident light is longer than that of the third incident light. A photodiode is disposed in an upper portion of the epitaxy layer, and a first deep well for reducing pixel-to-pixel talk of the image sensing device is disposed in a lower portion of the epitaxy layer in the second pixel area and the third pixel area, wherein at least a portion of the epitaxy layer in first pixel area does not include the first deep well.

Abstract: A fabricating method of an image sensor includes the steps of: providing a substrate; forming sensing elements on the substrate; forming microlenses on the sensing elements; filling a stuffed material on the microlenses, and air regions are formed in the stuffed material; and forming optical filters on the stuffed material.