Abstract: Aspects of the present disclosure include using particles in phase change materials to track temperature change of an object. The particles may be initially disposed at specific locations within the phase change materials. As the phase change materials transition from the solid state to the fluid state, the particles may move from the initial locations to different locations. The change in locations of the particles may be detected magnetically, electrically, optically, and/or visually. Such change may indicate that the object experienced a temperate above at least one phase transition temperature of the phase change materials.

Abstract: There is provided a continuous wave time of flight, CW-ToF, camera system comprising: a laser for emitting laser light; an imaging sensor, the image sensor comprising a pixel array for accumulating charge based on incident light comprising reflected laser light off an object, the pixel array comprising a plurality of rows of pixels; and a control system coupled to the imaging sensor and configured to control the pixel array to: identify at least a first row and a second row of the plurality of rows, wherein the first row and the second row are adjacent one another in the pixel array; accumulate charge in the pixels of the first row using a first integration setting for a first time period; accumulate charge in the pixels of the second row using a second integration setting for the first time period; and read out a set of charge samples, wherein the first row contains a first charge from accumulating using the first integration setting and the second row contains a second charge from accumulating using the sec

Abstract: There is provided a continuous wave time of flight, CW-ToF, camera system comprising: a laser for emitting laser light; an imaging sensor, the image sensor comprising a pixel array for accumulating charge based on incident light comprising reflected laser light off an object, the pixel array comprising a plurality of rows of pixels; and a control system coupled to the imaging sensor and configured to control the pixel array to: reset at least a first row and a second row of the plurality of rows, wherein the first row and the second row are adjacent one another in the pixel array; accumulate charge in the pixels of the pixel array using a first integration setting for a first time period; reset the first row of the plurality of rows; accumulate charge in the pixels of the pixel array using the first integration setting or a second integration setting for a second time period subsequent to the first time period; read out a set of charge samples, wherein the first row contains a first charge from accumulating a

Abstract: Aspects of the present disclosure include using particles in phase change materials to track temperature change of an object. The particles may be initially disposed at specific locations within the phase change materials. As the phase change materials transition from the solid state to the fluid state, the particles may move from the initial locations to different locations. The change in locations of the particles may be detected magnetically, electrically, optically, and/or visually. Such change may indicate that the object experienced a temperate above at least one phase transition temperature of the phase change materials.

Abstract: Aspects of the present disclosure include using particles in phase change materials to track temperature change of an object. The particles may be initially disposed at specific locations within the phase change materials. As the phase change materials transition from the solid state to the fluid state, the particles may move from the initial locations to different locations. The change in locations of the particles may be detected magnetically, electrically, optically, and/or visually. Such change may indicate that the object experienced a temperate above at least one phase transition temperature of the phase change materials.

Abstract: Aspects of the present disclosure include using particles in phase change materials to track temperature change of an object. The particles may be initially disposed at specific locations within the phase change materials. As the phase change materials transition from the solid state to the fluid state, the particles may move from the initial locations to different locations. The change in locations of the particles may be detected magnetically, electrically, optically, and/or visually. Such change may indicate that the object experienced a temperate above at least one phase transition temperature of the phase change materials.

Abstract: Aspects of the present disclosure include using particles in phase change materials to track temperature change of an object. The particles may be initially disposed at specific locations within the phase change materials. As the phase change materials transition from the solid state to the fluid state, the particles may move from the initial locations to different locations. The change in locations of the particles may be detected magnetically, electrically, optically, and/or visually. Such change may indicate that the object experienced a temperate above at least one phase transition temperature of the phase change materials.

Abstract: Aspects of the present disclosure include using particles in phase change materials to track temperature change of an object. The particles may be initially disposed at specific locations within the phase change materials. As the phase change materials transition from the solid state to the fluid state, the particles may move from the initial locations to different locations. The change in locations of the particles may be detected magnetically, electrically, optically, and/or visually. Such change may indicate that the object experienced a temperate above at least one phase transition temperature of the phase change materials.