Abstract: A thin film transistor (TFT) structure. In an example, the TFT includes a gate electrode, a first layer comprising an oxide semiconductor material, and a second layer between the first layer and the gate electrode. The second layer is crystalline and is in contact with the first layer, and includes zirconium and oxygen. The TFT includes a first contact coupled to the first layer at a first location, and a second contact coupled to the first layer at a second location. In some cases, the second layer further includes hafnium. In some cases, the TFT includes a third layer between of the gate electrode and the second layer, the third layer comprising a metal and oxygen. The gate electrode may also include the metal. In some cases, hydrogen is present at an interface between the gate electrode and the second layer.

Abstract: An integrated circuit structure includes a first layer comprising a semiconductor material. In an example, the semiconductor material of the layer comprises an oxide semiconductor material (e.g., comprising a metal and oxygen). The integrated circuit structure further includes a second layer above the first layer, where the second layer includes a metal and one of oxygen or nitrogen (e.g., includes aluminum and oxygen). In an example, the second layer is an etch stop layer. In an example, the second layer has a thickness of at most 20 nanometers. The integrated circuit structure further includes a first source or drain terminal and a second source or drain terminal, where each of the first and second source or drain terminals extends through the second layer and is coupled to the first layer. In an example, the integrated circuit structure is a thin film transistor (TFT), where the first layer is a thin film channel structure of the TFT.

Abstract: A thin film transistor (TFT) structure. In an example, the TFT includes a gate electrode, a first layer comprising an oxide semiconductor material, and a second layer between the first layer and the gate electrode. The second layer is crystalline and is in contact with the first layer, and includes zirconium and oxygen. The TFT includes a first contact coupled to the first layer at a first location, and a second contact coupled to the first layer at a second location. In some cases, the second layer further includes hafnium. In some cases, the TFT includes a third layer between of the gate electrode and the second layer, the third layer comprising a metal and oxygen. The gate electrode may also include the metal. In some cases, hydrogen is present at an interface between the gate electrode and the second layer.

Abstract: An embodiment of a semiconductor apparatus may include technology to convert an analog voltage level of a memory cell of a multi-level memory to a multi-bit digital value, and determine a single-bit value of the memory cell based on the multi-bit digital value. Some embodiments may also include technology to track a temporal history of accesses to the memory cell for a duration in excess of ten seconds, and determine the single-bit value of the memory cell based on the multi-bit digital value and the temporal history. Other embodiments are disclosed and claimed.

Abstract: A method is described. The method includes monitoring reliability, power consumption and performance of a processor and writing reliability, power consumption and performance data of the processor into an embedded non-volatile random access memory that is integrated into the processor's semiconductor chip.

Abstract: A processor semiconductor chip is described. The processor semiconductor chip includes at least one processing core. The processor semiconductor chip also includes a memory controller. The processor semiconductor chip also includes an embedded non flash non-volatile random access memory having a stack of storage cells disposed above the processor semiconductor chip's semiconductor substrate. The embedded non-volatile random access memory is to store boot up program code that, when executed by the processor semiconductor chip, is to analyze a subsequent module of program code so that a maliciously modified version of the subsequent module of program code can be identified. The embedded non-volatile random access memory to also store the subsequent module of program code.

Abstract: Examples include techniques for booting a computing system. A processor semiconductor chip includes one or more processing cores and an embedded non-volatile random-access memory (NVRAM), the NVRAM storing instructions that when executed by the one or more processing cores manages a boot process for a computing system.

Abstract: A processor semiconductor chip is described. The processor semiconductor chip includes at least one processing core. The processor semiconductor chip also includes a memory controller. The processor semiconductor chip also includes an embedded non flash non-volatile random access memory having a stack of storage cells disposed above the processor semiconductor chip's semiconductor substrate. The embedded non-volatile random access memory is to store boot up program code that, when executed by the processor semiconductor chip, is to analyze a subsequent module of program code so that a maliciously modified version of the subsequent module of program code can be identified. The embedded non-volatile random access memory to also store the subsequent module of program code.

Abstract: Examples include techniques for self-healing of a processor in a computing system. A processor semiconductor chip includes one or more processing cores and an embedded non-volatile random-access memory (NVRAM), the NVRAM storing instructions that when executed by the one or more processing cores detect an error causing a core failure, update processor configuration information that reflects the core failure, and cause reset and initialization of the processor using the updated processor configuration information.

Abstract: A call is setup between an originating device (A) and a terminating device (B), which both have access to a public land mobile network (131, 132) and a mobile data network (121, 122). The originating and terminating devices device (A; B) include a respective software-implemented call handling tool (SWA; SWB) configured to assist a user in placing and receiving calls. Bridge nodes (140) are connected to the mobile data network (121, 122), the public land mobile network (131, 132) and a server node (110), which also is connected to the mobile data network (121, 122). In response to a call-setup command from a user of the originating device (A), the software-implemented call handling tool (SWA), on one hand, sends a call-setup request (1) to the server node (110); and on the other hand, makes a first call (2) to a first bridge node (140) over the public land mobile network (131) using a first telephone number (#1).

Abstract: Examples include techniques for booting a computing system. A processor semiconductor chip includes one or more processing cores and an embedded non-volatile random-access memory (NVRAM), the NVRAM storing instructions that when executed by the one or more processing cores manages a boot process for a computing system.

Abstract: An embodiment of a semiconductor apparatus may include technology to convert an analog voltage level of a memory cell of a multi-level memory to a multi-bit digital value, and determine a single-bit value of the memory cell based on the multi-bit digital value. Some embodiments may also include technology to track a temporal history of accesses to the memory cell for a duration in excess of ten seconds, and determine the single-bit value of the memory cell based on the multi-bit digital value and the temporal history. Other embodiments are disclosed and claimed.

Abstract: A method is described. The method includes monitoring reliability, power consumption and performance of a processor and writing reliability, power consumption and performance data of the processor into an embedded non-volatile random access memory that is integrated into the processor's semiconductor chip.

Abstract: A group call is setup between one originating device (A) and at least two terminating devices (B, C), which each has access to a public land mobile network (131, 132, 133) and a mobile data net-work (121, 122, 123). The originating and terminating devices (A, B, C) include a respective software-implemented call handling tool (SWA, SWB, SWC) configured to assist a user in placing and receiving group calls. Bridge nodes (141, 142, 143) are connected to the mobile data network (121, 122, 123), the public land mobile network (131, 132, 133) and a server node (110), which, in turn, also is connected to the mobile data network (121, 122, 123).

Abstract: System for making and delivering a customized beverage product to a consumer having a user interface, a customization director in communication with a customization data store and the user interface, wherein the customization director includes executable instructions for determining a users customized formulation; and a beverage delivery system in communication with the customization director, wherein the beverage delivery system includes executable instructions for delivering a customized beverage product. Method for delivering a customized beverage product to an individual including the steps of obtaining consumer preference data; determining a consumer beverage formulation corresponding to the consumer preference data; and providing the consumer a customized beverage corresponding to the customized beverage formulation, utilizing one or more of delayed dilution, delayed mixing, and delayed filtering, in any order.

Abstract: An intraocular light probe has a mask or shield affixed at its distal end thereof which forms a directed light beam for intraocular illumination of target tissues or intraocular application of therapeutic light. The mask or shield serves to more fully focus, intensify and direct the beam toward the target tissues. The mask or shield also helps direct light away from other tissues and away from the eyes of the surgeon. This lessens unwanted glare. By placing a light probe beneath a surgical instrument such as a phacoemulsifier or vitrector, laser, cutting instrument (e.g., scissors or knife), forceps or probe/manipulator, whether as part of or separate from an infusion sleeve, a mask or shield effect is created. This has the same benefits of directing the beam toward target tissues, away from other tissues and away from the eyes of the surgeon. The mask or shield is opaque or semi-opaque and made of a soft, semi-rigid or rigid material.