Abstract:
In using an application's drawing feature, users typically use connecting lines between graphical shapes to depict a relationship between the shapes. Drawing connecting lines between two or more graphical shapes within an application can be a time consuming, manual task. An application that automatically generates connecting lines between shapes, based on spatial relationships among the shapes, can reduce the amount of time for drawing a diagram. Functionality can be implemented to generate connecting lines between 1:n shapes based on proximity among the shapes and/or contact between shapes. Automatically generating connecting lines among shapes based on spatial relationships among the shapes allows generating of the connecting lines based on manipulation of shapes, which typically have a larger surface area than a line. Manipulating a larger surface area can be easier than manipulating a line.
Abstract:
In using an application's drawing feature, users typically use connecting lines between graphical shapes to depict a relationship between the shapes. Drawing connecting lines between two or more graphical shapes within an application can be a time consuming, manual task. An application that automatically generates connecting lines between shapes, based on spatial relationships among the shapes, can reduce the amount of time for drawing a diagram. Functionality can be implemented to generate connecting lines between 1:n shapes based on proximity among the shapes and/or contact between shapes. Automatically generating connecting lines among shapes based on spatial relationships among the shapes allows generating of the connecting lines based on manipulation of shapes, which typically have a larger surface area than a line. Manipulating a larger surface area can be easier than manipulating a line.
Abstract:
A code tree of two-dimensional orthogonal variable spreading factor (2D-OVSF) code matrices for a multicarrier direct-sequence code-division multiple-access (MC-DS/CDMA) communications system is generated by providing two sets of 2×2 orthogonal matrices {A(1)(2×2), A(2)(2×2)} and {B(1)(2×2), B(2)(2×2)}. The first set of 2×2 matrices is used to generate a pair of sibling nodes in the code tree that respectively represent matrices A(1)(2×2α) and A(2)(2×2α) by iterating the relationship: A(1)(2×21+β)=[A(1)(2×2β)A(2)(2×2β)], The matrices A(1)(2×2α) and A(2)(2×2α) are A(2)(2×21+β)=[A(1)(2×2β)−A(2)(2×2β)]. used to generate a child node of one of the sibling nodes. The child node contains an M×N matrix, which is found by iterating the relationship: A(i−1)(O×P)=[B(1)(2×2){circle around (×)}A(i/2)(0/2×P/2)] where {circle around (×)} indicates a Kronecker product. A(i)(O×P)=[B(2)(2×2){circle around (×)}A(i/2)(0/2×P/2)],
Abstract:
An in-situ performed method utilizing a pure H2O plasma to remove a layer of resist from a substrate or wafer without substantially accumulating charges thereon. Also, in-situ performed methods utilizing a pure H2O plasma or a pure H2O vapor to release or remove charges from a surface or surfaces of a substrate or wafer that have accumulated during one or more IC fabrication processes.
Abstract translation:使用纯H 2 O 2等离子体的原位执行方法从衬底或晶片上去除一层抗蚀剂,而基本上不累积电荷。 而且,使用纯H 2 O 2等离子体或纯H 2 O 2蒸气的原位实施方法从基板或晶片的表面或表面释放或去除电荷 其在一个或多个IC制造过程中积累。
Abstract:
A structure of a solar cell is provided. The structure of the solar cell includes a substrate, a base and a plurality of nanostructures. The base is disposed on the substrate. The nanostructures are disposed on a surface of the base, or a surface of the base includes the nanostructures, so as to increase light absorption of the structure.
Abstract:
A multicarrier direct-sequence code-division multiple-access (MC-DS/CDMA) communications system is provided. A code tree of two-dimensional orthogonal variable spreading factor (2D-OVSF) codes is then generated for the system. To generate the code tree, a set of existing M1×N1 2D-OVSF matrices, in the form of A(i)(M1×N1) for i={1, 2, . . . , K1} is selected as seed matrices. M1 represents the number of available frequency carriers in the MC-DS/CDMA system, and N1 represents a spreading factor code length. Another set of existing M2×N2 2D-OVSF matrices, in the form of B2(i)(M2×N2) for i={1, 2, . . . , K2} is then selected as mapping matrices. The mapping matrices are used to generate corresponding children matrices. These second layer child matrices are M1M2×N1N2 matrices with cardinality K1K2, which are defined by reiterating the relationship: C ( M 1 M 2 × N 1 N 2 ) ( ( i - 1 ) K 2 + 1 ) = B 2 ( M 2 × N 2 ) ( 1 ) ⊕ A ( M 1 × N 1 ) ( i ) C ( M 1 M 2 × N 1 N 2 ) ( ( i - 1 ) K 2 + 2 ) = B 2 ( M 2 × N 2 ) ( 2 ) ⊕ A ( M 1 × N 1 ) ( i ) ⋯ C ( M 1 M 2 × N 1 N 2 ) ( ( i - 1 ) K 2 + K 2 ) = B 2 ( M 2 × N 2 ) ( K 2 ) ⊕ A ( M 1 × N 1 ) ( i ) where ⊕ indicates a Kronecker product, and i=1, 2, 3, 4, . . . , K1.
Abstract:
A structure of a solar cell. The structure of the solar cell includes a substrate, a graded layer and a semiconductor layer. The graded layer is disposed on the substrate. The graded layer is made from materials including the first material and the second material, and includes at least one thin film. One of the at least one thin film includes a mixture of at least the first material and the second material at a mixture ratio. The mixture forms a bandgap of the at least one thin film. The semiconductor layer is disposed on the graded layer.