Abstract: Touchscreen testing techniques are described. In one or more implementations, a piece of conductor (e.g., metal) is positioned as proximal to a touchscreen device and the touchscreen device is tested by simulating a touch of a user. This technique may be utilized to perform a variety of different testing of a touchscreen device, such as to test latency and probabilistic latency. Additional techniques are also described including contact geometry testing techniques.

Abstract: Touchscreen testing techniques are described. In one or more implementations, a piece of conductor (e.g., metal) is positioned as proximal to a touchscreen device and the touchscreen device is tested by simulating a touch of a user. This technique may be utilized to perform a variety of different testing of a touchscreen device, such as to test latency and probabilistic latency. Additional techniques are also described including contact geometry testing techniques.

Abstract: Various embodiments provide an input test tool that promotes precision testing, flexibility and repeatability over a wide variety of functionality tests that are utilized in both touch and near-touch input scenarios. The input test tool enables a variety of degrees of motion, including both linear and rotational motion, so that a device under test can be tested utilizing a number of different linear and/or rotational input scenarios.

Abstract: In implementations of magnetically attached end effectors, end effectors for use with a robotic touchscreen testing apparatus are held in a rack. The apparatus is able to fix, remove, and change end effectors though movement of a movable spindle of the apparatus relative to the rack. The end effectors are attached to the spindle through magnets and aligned with the spindle through complimentary alignment features on the end effectors and the spindle.

Abstract: A method that builds a chain-of-custody for archived data is disclosed to ensure the integrity and reliability of the archived data. In one implementation, by using a certified Time Stamp Authority (TSA), an indelible record of each time the archived data is touched (e.g. created, stored, retrieved, accessed, tested, moved, or transformed) is generated to build verifiable links between events to ensure the custody of the data can be audited and verified that it has remained intact throughout its lifetime. The chain-of-custody, in combination with the storage architecture that ensures archive data has not changed through various software and hardware means (e.g., multiple hash signatures to ensure integrity, timestamp authorities to pinpoint each time the archived data was touched, location information to pinpoint physical location, and coordinated chain of custody on multiple replicas of the digital artifact) validates that the archived data has not changed since it was archived.

Abstract: Touchscreen testing techniques are described. In one or more implementations, a piece of conductor (e.g., metal) is positioned as proximal to a touchscreen device and the touchscreen device is tested by simulating a touch of a user. This technique may be utilized to perform a variety of different testing of a touchscreen device, such as to test latency and probabilistic latency. Additional techniques are also described including contact geometry testing techniques.

Abstract: Touchscreen testing techniques are described. In one or more implementations, a piece of conductor (e.g., metal) is positioned as proximal to a touchscreen device and the touchscreen device is tested by simulating a touch of a user. This technique may be utilized to perform a variety of different testing of a touchscreen device, such as to test latency and probabilistic latency. Additional techniques are also described including contact geometry testing techniques.

Abstract: Touchscreen testing techniques are described. In one or more implementations, a piece of conductor (e.g., metal) is positioned as proximal to a touchscreen device and the touchscreen device is tested by simulating a touch of a user. This technique may be utilized to perform a variety of different testing of a touchscreen device, such as to test latency and probabilistic latency. Additional techniques are also described including contact geometry testing techniques.

Abstract: Various embodiments provide an input test tool that promotes precision testing, flexibility and repeatability over a wide variety of functionality tests that are utilized in both touch and near-touch input scenarios. The input test tool enables a variety of degrees of motion, including both linear and rotational motion, so that a device under test can be tested utilizing a number of different linear and/or rotational input scenarios.

Abstract: Various embodiments provide an input test tool that promotes precision testing, flexibility and repeatability over a wide variety of functionality tests that are utilized in both touch and near-touch input scenarios. The input test tool enables a variety of degrees of motion, including both linear and rotational motion, so that a device under test can be tested utilizing a number of different linear and/or rotational input scenarios.

Abstract: Touchscreen testing techniques are described. In one or more implementations, a piece of conductor (e.g., metal) is positioned as proximal to a touchscreen device and the touchscreen device is tested by simulating a touch of a user. This technique may be utilized to perform a variety of different testing of a touchscreen device, such as to test latency and probabilistic latency. Additional techniques are also described including contact geometry testing techniques.

Abstract: Touchscreen testing techniques are described. In one or more implementations, a piece of conductor (e.g., metal) is positioned as proximal to a touchscreen device and the touchscreen device is tested by simulating a touch of a user. This technique may be utilized to perform a variety of different testing of a touchscreen device, such as to test latency and probabilistic latency. Additional techniques are also described including contact geometry testing techniques.

Abstract: Touchscreen testing techniques are described. In one or more implementations, a piece of conductor (e.g., metal) is positioned as proximal to a touchscreen device and the touchscreen device is tested by simulating a touch of a user. This technique may be utilized to perform a variety of different testing of a touchscreen device, such as to test latency and probabilistic latency. Additional techniques are also described including contact geometry testing techniques.

Abstract: A method that builds a chain-of-custody for archived data is disclosed to ensure the integrity and reliability of the archived data. In one implementation, by using a certified Time Stamp Authority (TSA), an indelible record of each time the archived data is touched (e.g. created, stored, retrieved, accessed, tested, moved, or transformed) is generated to build verifiable links between events to ensure the custody of the data can be audited and verified that it has remained intact throughout its lifetime. The chain-of-custody, in combination with the storage architecture that ensures archive data has not changed through various software and hardware means (e.g., multiple hash signatures to ensure integrity, timestamp authorities to pinpoint each time the archived data was touched, location information to pinpoint physical location, and coordinated chain of custody on multiple replicas of the digital artifact) validates that the archived data has not changed since it was archived.