Abstract: A method, computer system, and computer program product to award one or more benchmark prizes in an online card game or hand. In certain embodiments, a controller automatically triggers awarding a first benchmark prize to at least one of one or more players or one or more game observers, based at least in part on an occurrence of a first benchmark event. The awarding occurs without any physical based-dealer taking time to payout the first benchmark prize, and thus, without slowing down the online game or hand that is being played.

Abstract: A method, computer system, and computer program product to award one or more benchmark prizes in an online card game or hand. In certain embodiments, a controller automatically triggers awarding a first benchmark prize to at least one of one or more players or one or more game observers, based at least in part on an occurrence of a first benchmark event. The awarding occurs without any physical based-dealer taking time to payout the first benchmark prize, and thus, without slowing down the online game or hand that is being played.

Abstract: A method, computer system, and computer program product to implement an automatic fold-out command in an online card game. The system can automatically assign the player-entry of the player to a new table.

Abstract: A method, computer system, and computer program product to implement an automatic fold-out command in an online card game. The system can automatically assign the player-entry of the player to a new table.

Abstract: A method, computer system, and computer program product to assign player-entries in an online card game. The method commences by receiving preference parameters corresponding to a player, then receiving a player command corresponding to the player to fold out of a current hand of a particular game. For alacrity of play and for supporting a large number of concurrently open tables for an online player to play a large number of games, the method proceeds to identify an open table that satisfies player preference parameters, and wherein the open table is an open table (e.g., with fewer player-entries than the open table's capacity). The preferred game and/or the player's preferred seating arrangement can be determined by using a second preference parameter. The method can respond to a fold-out command by the player and can open a new table on the basis of the player's preference parameters.

Abstract: A method, computer system, and computer program product to assign player-entries in an online card game. The method commences by receiving preference parameters corresponding to a player, then receiving a player command corresponding to the player to fold out of a current hand of a particular game. For alacrity of play and for supporting a large number of concurrently open tables for an online player to play a large number of games, the method proceeds to identify an open table that satisfies player preference parameters. The preferred game and/or the player's preferred seating arrangement can be determined by using a second preference parameter. The method can respond to a fold-out command by the player and can open a new table on the basis of the player's preference parameters.

Abstract: A method, computer system, and computer program product to implement an automatic fold-out command in an online card game. The system can automatically assign the player-entry of the player to a new table.

Abstract: A method, computer system, and computer program product to assign player-entries in an online card game. The method commences by receiving preference parameters corresponding to a player, then receiving a player command corresponding to the player to fold out of a current hand of a particular game. For alacrity of play and for supporting a large number of concurrently open tables for an online player to play a large number of games, the method proceeds to identify an open table that satisfies player preference parameters. The preferred game and/or the player's preferred seating arrangement can be determined by using a second preference parameter. The method can respond to a fold-out command by the player and can open a new table on the basis of the player's preference parameters.

Abstract: A method, computer system, and computer program product to assign player-entries in an online card game. The method commences by receiving preference parameters corresponding to a player, then receiving a player command corresponding to the player to fold out of a current hand of a particular game. For alacrity of play and for supporting a large number of concurrently open tables for an online player to play a large number of games, the method proceeds to identify an open table that satisfies player preference parameters, and wherein the open table is an open table (e.g., with fewer player-entries than the open table's capacity). The preferred game and/or the player's preferred seating arrangement can be determined by using a second preference parameter. The method can respond to a fold-out command by the player and can open a new table on the basis of the player's preference parameters.

Abstract: A method, computer system, and computer program product to award a benchmark prize to a game participant in an online card game. The method commences by receiving an opt-in wager from a game participant to participate in one or more forms of parallel competition, then receiving a plurality of cards corresponding to a hand for a player-entry. The method continues by identifying a benchmark related to the online card game and awarding the benchmark prize to the game participant based on the benchmark. Benchmarks comprise a hand rank or an event during a game. Some techniques include automatic fold-out whereby a profitability threshold of a current hand or player preferences on hand strength are used in making the decision to perform a fold-out command based on a comparison of the current hand to a calculated current hand profitability threshold. If the player folds-out, then the system can automatically assign the player-entry of the player to a new table.

Abstract: A method, computer system, and computer program product to implement an automatic fold-out command in an online card game. The system can automatically assign the player-entry of the player to a new table.

Abstract: Imparting a controlled amount of stress in an assembly comprising a semiconductor circuit on a substrate comprises depositing a tensile stressed metal film stressor layer onto the surface of the circuit. Establishing a fracture region below electrically active regions of the circuit, adhering a foil handle to the assembly and pulling it away from the assembly induces mechanical fracture in the fracture region below the electrically active regions. The mechanical fracture propagates parallel and laterally to the surface of the substrate and below the circuit to produce a thin flexible circuit on a residual substrate. The circuit is under compressive strain that is changed by modifying the stressor layer or residual substrate. Individualized circuits or a circuit may also be defined above the fracture by dividing the circuit into preselected regions with surrounding trenches before fracture. We harvest the circuit(s) by pulling the foil handle away from the assembly.

Abstract: A method for forming a transistor. A semiconductor substrate is provided. The semiconductor substrate is patterned to provide a first body edge. A first gate structure of a first fermi level is provided adjacent the first body edge. The semiconductor substrate is patterned to provide a second body edge. The first and second body edges of the semiconductor substrate define a transistor body. A second gate structure of a second fermi level is provided adjacent the second body edge. A substantially uniform dopant concentration density is formed throughout the transistor body.

Abstract: A method of forming a conductive spacer on a semiconductor device. The method includes depositing a polysilicon layer on the semiconductor device, selectively implanting dopant ions in the polysilicon layer on a first side of a transistor region of the semiconductor device to define a conductive spacer area, and removing the polysilicon layer except for the conductive spacer area. Optionally, a silicidation process can be performed on the conductive spacer area so that the conductive spacer is made up of metal silicide.

Abstract: An area-efficient gated diode includes a semiconductor layer of a first conductivity type, an active region of a second conductivity type formed in the semiconductor layer proximate an upper surface of the semiconductor layer, and at least one trench electrode extending substantially vertically through the active region and at least partially into the semiconductor layer. A first terminal of the gated diode is electrically connected to the trench electrode, and at least a second terminal is electrically connected to the active region. The gated diode is operative in one of at least a first mode and a second mode as a function of a voltage potential applied between the first and second terminals. The first mode is characterized by the creation of an inversion layer in the semiconductor layer substantially surrounding the trench electrode.

Abstract: The present invention provides a semiconducting device structure including a thin SOI region, wherein the SOI device is formed with an optional single thin diffusion, i.e., offset, spacer and a single diffusion implant. The device silicon thickness is thin enough to permit the diffusion implants to abut the buried insulator but thick enough to form a contacting silicide. Stress layer liner films are used both over nFET and pFET device regions to enhance performance.

Abstract: An integrated circuit chip and a semiconductor structure. The integrated circuit chip includes: a thick-body device containing a semiconductor mesa and a doped body contact; and a field effect transistor on a first sidewall of a semiconductor mesa, wherein the doped body contact is on a second sidewall of the semiconductor mesa, and wherein the semiconductor mesa is disposed between the field effect transistor and the doped body contact. The semiconductor structure includes: a buried oxide layer on a semiconductor wafer; a thin fin structure on the buried oxide layer, wherein the thin fin structure includes a first hard mask on a semiconductor fin, wherein the semiconductor fin is disposed between the first hard mask and a surface of the buried oxide layer; and a thick mesa structure on the buried oxide layer, and wherein the thick mesa structure includes a semiconductor mesa.

Abstract: Methods for forming a spacer (44) for a first structure (24, 124), such as a gate structure of a FinFET, and at most a portion of a second structure (14), such as a fin, without detrimentally altering the second structure. The methods generate a first structure (24) having a top portion (30, 130) that overhangs an electrically conductive lower portion (32, 132) and a spacer (44) under the overhang (40, 140). The overhang (40, 140) may be removed after spacer processing. Relative to a FinFET, the overhang protects parts of the fin (14) such as regions adjacent and under the gate structure (24, 124), and allows for exposing sidewalls of the fin (14) to other processing such as selective silicon growth and implantation. As a result, the methods allow sizing of the fin (14) and construction of the gate structure (24, 124) and spacer without detrimentally altering (e.g., eroding by forming a spacer thereon) the fin (14) during spacer processing.

Abstract: Device designs and methods are described for incorporating capacitors commonly used in planar CMOS technology into a FinFET based technology. A capacitor includes at least one single-crystal Fin structure having a top surface and a first side surface opposite a second side surface. Adjacent the top surface of the at least one Fin structure is at least one insulator structure. Adjacent the at least one insulator structure and over a portion of the at least one Fin structure is at least one conductor structure. Decoupling capacitors may be formed at the circuit device level using simple design changes within the same integration method, thereby allowing any number, combination, and/or type of decoupling capacitors to be fabricated easily along with other devices on the same substrate to provide effective decoupling capacitance in an area-efficient manner with superior high-frequency response.