Abstract: One embodiment provides a method, including: receiving, at an information handling device, a first predetermined data characteristic and a second predetermined data characteristic; receiving, at the information handling device, text data comprising a third predetermined data characteristic; comparing, using a processor, the third predetermined data characteristic with the first predetermined data characteristic and the second predetermined data characteristic; and determining, based on the comparing, whether the third predetermined data characteristic is associated with the first predetermined data characteristic or the second predetermined data characteristic. Other aspects are described and claimed.

Abstract: A test and measurement instrument including a signal generator configured to generate a waveform to be sent over a cable to a device under test (DUT) and a real-time waveform monitor (RTWM) circuit. The RTWM is configured to determine a propagation delay of the cable, capture a first waveform, including an incident waveform and a reflection waveform at a first test point between the signal generator and the DUT, capture a second waveform including at least the incident waveform at a second test point between the signal generator and the DUT, determine a reflection waveform and the incident waveform based on the first waveform and the second waveform, and determine a DUT waveform based on the incident waveform, the reflection waveform, and the propagation delay. The DUT waveform represents the waveform generated by the signal generator as received by the DUT.

Abstract: An organic light emitting diode display includes a substrate. The substrate defines a first pixel portion and one or more second pixel portions. Pixels formed in the first pixel portion include at least some transparent organic light emitting diode pixels, while other pixels formed in the one or more second pixel portions include only reflective organic light emitting diode pixels.

Abstract: An air vent structure includes a frame arranged at an air outlet or an air inlet of a box body, and a plurality of plates. In cross section, each of the plates is a bent structure and includes a first flat portion, an upslope portion and a downslope portion. The first flat portion is fixed to the frame and extends in a direction away from the frame, the plate then extending upward to form the upslope portion. A top of the upslope bends downward to form the downslope portion, and the height of the downslope portion is smaller than the height of the upslope portion. The air vent structure can ensure that hot air flow passes smoothly through the air outlet, and also ensure that the hot air flow is blown out in a horizontal direction. A box-type inverter having the air vent structure is also provided.

Abstract: For adjusting color values in image data for an emissive display, a method receives a frame of image data and adjusts a color value of a first color component by predetermined amount and identifies a white point from the adjusted color value of the first color component for each pixel in the frame of image data. The method remaps, for each pixel in the frame of image data, color values for a second color component and for a third color component based on the white point and controls the emissive display to present the frame of image data using the adjusted color value and the remapped color values. Each pixel of the emissive display includes a first subpixel that emits the first color component, a second subpixel that emits the second color component, and a third subpixel that emits the third color component.

Abstract: A method, system and computer program product applying an application profile to a display configuration of a device, which overrides the default ambient light setting (ALS) data associated with a display. The method includes detecting initiation of an application. The method further includes searching at least one database for an application profile associated with the application. The application profile includes application-specific ALS data, which establishes an application-specific configuration of the display while the application is open on the display. In response to locating the application profile within the at least one database, the application profile is applied to the display, with the application-specific ALS data replacing/overriding the default ALS data.

Abstract: Antenna elements (101, 102) used for multi-band antenna dual polarization include: four radiating elements (201), a balun element configured to feed power to the radiating elements (201), and a fastening plate (202) configured to fasten the balun element. The balun element includes two dielectric plates (203). Two signal transmission units (301), one feeding unit (401), and two filtering units (402) are printed on each dielectric plate (203). An LC resonant energy storage structure is constructed on the balun element by using the filtering units (402), and decoupling on a specific frequency band can be implemented by adjusting the filtering unit (402). Therefore, even if the antenna elements (101, 102) are applied to a scenario in which elements on different frequency bands work collaboratively, radiating elements (201) on different frequency bands are not coupled electromagnetically and strongly when the radiating elements are arranged closely.

Abstract: For adjusting color values in image data for an emissive display, a method receives a frame of image data and adjusts a color value of a first color component by predetermined amount and identifies a white point from the adjusted color value of the first color component for each pixel in the frame of image data. The method remaps, for each pixel in the frame of image data, color values for a second color component and for a third color component based on the white point and controls the emissive display to present the frame of image data using the adjusted color value and the remapped color values. Each pixel of the emissive display includes a first subpixel that emits the first color component, a second subpixel that emits the second color component, and a third subpixel that emits the third color component.

Abstract: An electronic device includes a deformable housing and a flexible display supported by the deformable housing. One or more flex sensors supported by the deformable housing detect the electronic device is deformed at a deformation portion to partition the flexible display into a first portion and a second portion. One or more processors present content on the first portion of the flexible display in response to detecting the flexible display being deformed, and remediate the second portion of the flexible display to compensate performance degradation of the flexible display resulting from presenting content on the first portion of the flexible display.

Abstract: A method, system and computer program product applying an application profile to a display configuration of a device, which overrides the default ambient light setting (ALS) data associated with a display. The method includes detecting initiation of an application. The method further includes searching at least one database for an application profile associated with the application. The application profile includes application-specific ALS data, which establishes an application-specific configuration of the display while the application is open on the display. In response to locating the application profile within the at least one database, the application profile is applied to the display, with the application-specific ALS data replacing/overriding the default ALS data.

Abstract: One embodiment provides a method, including: receiving, at an information handling device, a first predetermined data characteristic and a second predetermined data characteristic; receiving, at the information handling device, text data comprising a third predetermined data characteristic; comparing, using a processor, the third predetermined data characteristic with the first predetermined data characteristic and the second predetermined data characteristic; and determining, based on the comparing, whether the third predetermined data characteristic is associated with the first predetermined data characteristic or the second predetermined data characteristic. Other aspects are described and claimed.

Abstract: Disclosed herein are sensors that include: (a) a circuit board that includes an electronic processor; (b) a plurality of radiation sources, each source being attached to the circuit board; and (c) a spectral detector attached to the circuit board, the spectral detector being configured to analyze radiation derived from one or more of the plurality of radiation sources. During use, the sensors are configured to be worn on a portion of a body of a subject. The electronic processor is configured to cause two or more of the plurality of radiation sources to direct incident radiation to the subject, to cause the spectral detector to analyze radiation from the subject, and to determine one or more properties of the subject based on the radiation from the subject. Methods of making and using these sensors are also disclosed.

Abstract: Methods are disclosed for determining a value associated with an analyte in a sample. The methods include: determining a set of spectra from a model for light attenuation in the sample, where the model includes contributions from at least two different sources of light attenuation in the sample; determining a set of spectral correction factors associated with the analyte in the sample based on the set of spectra; and using the set of spectral correction factors to determine the value associated with the analyte of interest.

Abstract: We disclose measurement systems and methods for measuring analytes in target regions of samples that also include features overlying the target regions. The systems include: (a) a light source; (b) a detection system; (c) a set of at least first, second, and third light ports which transmit light from the light source to a sample and receive and direct light reflected from the sample to the detection system, generating a first set of data including information corresponding to both an internal target within the sample and features overlying the internal target, and a second set of data including information corresponding to features overlying the internal target; and (d) a processor configured to remove information characteristic of the overlying features from the first set of data using the first and second sets of data to produce corrected information representing the internal target.

Abstract: We disclose measurement systems and methods for measuring analytes in target regions of samples that also include features overlying the target regions. The systems include: (a) a light source; (b) a detection system; (c) a set of at least first, second, and third light ports which transmit light from the light source to a sample and receive and direct light reflected from the sample to the detection system, generating a first set of data including information corresponding to both an internal target within the sample and features overlying the internal target, and a second set of data including information corresponding to features overlying the internal target; and (d) a processor configured to remove information characteristic of the overlying features from the first set of data using the first and second sets of data to produce corrected information representing the internal target.

Abstract: One embodiment relates to an objective lens utilizing magnetic and electrostatic fields which is configured to focus a primary electron beam onto a surface of a target substrate. The objective lens includes a magnetic pole piece and an electrostatic deflector configured within the pole piece. An electrostatic lens field is determined by the pole piece and the electrostatic deflector, and the electrostatic lens field is configured by adjusting offset voltages applied to plates of the electrostatic deflector. Other embodiments, aspects and features are also disclosed.

Abstract: We disclose measurement systems and methods for measuring analytes in target regions of samples that also include features overlying the target regions. The systems include: (a) a light source; (b) a detection system; (c) a set of at least first, second, and third light ports which transmit light from the light source to a sample and receive and direct light reflected from the sample to the detection system, generating a first set of data including information corresponding to both an internal target within the sample and features overlying the internal target, and a second set of data including information corresponding to features overlying the internal target; and (d) a processor configured to remove information characteristic of the overlying features from the first set of data using the first and second sets of data to produce corrected information representing the internal target.

Abstract: Disclosed herein are sensors that include: (a) a circuit board that includes an electronic processor; (b) a plurality of radiation sources, each source being attached to the circuit board; and (c) a spectral detector attached to the circuit board, the spectral detector being configured to analyze radiation derived from one or more of the plurality of radiation sources. During use, the sensors are configured to be worn on a portion of a body of a subject. The electronic processor is configured to cause two or more of the plurality of radiation sources to direct incident radiation to the subject, to cause the spectral detector to analyze radiation from the subject, and to determine one or more properties of the subject based on the radiation from the subject. Methods of making and using these sensors are also disclosed.

Abstract: Methods are disclosed for determining a value associated with an analyte in a sample. The methods include: determining a set of spectra from a model for light attenuation in the sample, where the model includes contributions from at least two different sources of light attenuation in the sample; determining a set of spectral correction factors associated with the analyte in the sample based on the set of spectra; and using the set of spectral correction factors to determine the value associated with the analyte of interest.

Abstract: A method of imaging using an electron beam. An incident electron beam is focused onto the specimen surface, a scattered electron beam is extracted from the specimen surface, and a plurality of dark field signals are detected using a detection system. An interpolated dark field signal is generated using the plurality of dark field signals. In addition, a bright field signal may be detected using the detection system, and a final interpolated signal may be generated using the interpolated dark field signal and the bright field signal. User input may be received which determines a degree of interpolation between two adjacent dark field signals so as to generate the interpolated dark field signal and which determines an amount of interpolation between the interpolated dark field signal and the bright field signal so as to generate a final interpolated signal. Other embodiments, aspects and features are also disclosed.