An apparatus and a method for state detection, the apparatus for state detection includes one or more charge sensing elements arranged on a terminal, a charge collection circuit connected to the charge sensing element, and a state detection module connected to the charge collection circuit, the charge collection circuit is configured to generate charge and radiate the charge out through the charge sensing element, and collect reflected charge from each of the charge sensing elements to generate an induced charge value of the charge sensing element, and output the induced charge value of each of the charge sensing elements to the state detection module; the state detection module is configured to determine a state of the terminal according to the induced charge value.

A system for Time-of-Flight tomography includes an x-ray source capable of producing pulsed x-rays with a pulse duration of about 100 ps or faster, a single-photon detector configured to detect individual photons backscattered from an object when present and illuminated by the x-ray source, the single-photon detector producing a two-dimensional image, and a processor for determining a Time-of-Flight of an individual photon from the x-ray source and backscattered by the object to the single-photon detector. Operating the system pulsing at 100 picosecond or faster, pulsing the x-ray source at least once to illuminate at least part of an object, detecting via a detector one or more individual backscattered photons from the object, and determining a length of time for an individual backscattered photon to travel from the x-ray source to the photon detector.

A Time of Flight mass analyzer is disclosed comprising an annular ion guide having a longitudinal axis and comprising a first annular ion guide section and a second annular ion guide section. Ions are introduced into the first annular ion guide section so that the ions form substantially stable circular orbits within the first annular ion guide section about the longitudinal axis. The ions are then orthogonally accelerated ions from the first annular ion guide section into the second annular ion guide section. An ion detector is disposed within the annular ion guide and has an ion detecting surface arranged in a plane which is substantially perpendicular to the longitudinal axis.

An information processing apparatus includes information acquisition means configured to acquire quantitative information on a test substance, which is estimated by inputting spectrum information of a sample including the test substance into a learning model, and degree-of-contribution acquisition means configured to acquire a degree of contribution of the acquired quantitative information on the test substance.

An information handling system manages operation of an infrared time of flight sensor to provide accurate and timely user presence and absence detection through adjustments of the time of flight sensor detection sensitivity based upon ambient light brightness and color temperature sensed by an ambient light sensor. An integrated sensor hub in a central processing unit disables infrared illumination by the time of flight sensor, senses ambient light conditions with the ambient light sensor, looks up sensitivity settings from a lookup table that associates infrared time of flight sensor sensitivity and ambient light conditions, applies the associated sensitivity at the infrared time of flight sensor and then re-enables infrared illumination to detect end user presence and absence with the infrared time of flight sensor.

The disclosure provides a circuit to mitigate ripple. The circuit includes a controller that generates a PWM (pulse width modulated) clock signal. A DC/DC converter receives the PWM clock signal, and generates an output signal. A light source is coupled to the DC/DC converter, and receives the output signal. The light source transmits light pulses during an integration time. A time integral of the output signal during the integration time is constant during a plurality of quad time periods.

An information handling system manages operation of an infrared time of flight sensor to provide accurate and timely user presence and absence detection through adjustments of the time of flight sensor detection sensitivity based upon ambient light brightness and color temperature sensed by an ambient light sensor. An integrated sensor hub in a central processing unit disables infrared illumination by the time of flight sensor, senses ambient light conditions with the ambient light sensor, looks up sensitivity settings from a lookup table that associates infrared time of flight sensor sensitivity and ambient light conditions, applies the associated sensitivity at the infrared time of flight sensor and then re-enables infrared illumination to detect end user presence and absence with the infrared time of flight sensor.

An apparatus and a method for state detection, the apparatus for state detection includes one or more charge sensing elements arranged on a terminal, a charge collection circuit connected to the charge sensing element, and a state detection module connected to the charge collection circuit, the charge collection circuit is configured to generate charge and radiate the charge out through the charge sensing element, and collect reflected charge from each of the charge sensing elements to generate an induced charge value of the charge sensing element, and output the induced charge value of each of the charge sensing elements to the state detection module; the state detection module is configured to determine a state of the terminal according to the induced charge value.

A Time of Flight mass analyzer is disclosed comprising an annular ion guide having a longitudinal axis and comprising a first annular ion guide section and a second annular ion guide section. Ions are introduced into the first annular ion guide section so that the ions form substantially stable circular orbits within the first annular ion guide section about the longitudinal axis. An ion detector is disposed within the annular ion guide. Ions are orthogonally accelerated in a first axial direction from the first annular ion guide section into the second annular ion guide section. An axial DC potential is maintained along at least a portion of the second annular ion guide section so that the ions are reflected in a second axial direction which is substantially opposed to the first axial direction. The ions undergo multiple axial passes through the second annular ion guide section before being detected by the ion detector.

A Time of Flight mass analyser is disclosed comprising an annular ion guide having a longitudinal axis and comprising a first annular ion guide section and a second annular ion guide section. Ions are introduced into the first annular ion guide section so that the ions form substantially stable circular orbits within the first annular ion guide section about the longitudinal axis. An ion detector is disposed within the annular ion guide. Ions are orthogonally accelerated in a first axial direction from the first annular ion guide section into the second annular ion guide section. An axial DC potential is maintained along at least a portion of the second annular ion guide section so that the ions are reflected in a second axial direction which is substantially opposed to the first axial direction. The ions undergo multiple axial passes through the second annular ion guide section before being detected by the ion detector.