65results about How to "Good acquisition" patented technology

A neutron logging tool includes a neutron source and at least one position sensitive thermal or epithermal neutron detector. The logging tool further includes an electronic controller configured to estimate the axial location of detected neutrons. Measurement of the axial neutron flux distribution enables other formation and borehole parameters such as formation porosity and sensor standoff to be computed. In logging while drilling embodiments, a borehole caliper may also be computed form the axial neutron flux distribution.

A system for imaging a fluorescently labeled sample is presented, The system comprises a capsule, which is a closable structure made of a material isolating the inside of the capsule from its surrounding environment, and which has a support stage for receiving the sample and carrying it thereinside during the imaging; and an optical device at least partly accommodated inside the capsule and operable to illuminate the sample with incident radiation to excite a fluorescent response of the sample, detect the fluorescent response, and generate data indicative thereof.

Advantageous instruments, assemblies and methods are provided for undertaking imaging techniques (e.g., microscopic imaging techniques). The present disclosure provides improved imaging techniques, equipment and systems. More particularly, the present disclosure provides advantageous microscopy/imaging assemblies with rapid sample auto-focusing (e.g., microscopy/imaging assemblies having instant focusing for rapid sample imaging with auto-focusing). The present disclosure provides for high-throughput whole slide imaging with instant focal plane detection. A whole slide imaging platform/assembly that uses instant focusing systems/methods for high-speed sample autofocusing is provided. Such exemplary platforms/assemblies can be used for digital pathology or the like, and can provide improved, faster and cheaper diagnosis/prognosis of ailments/diseases. At least two exemplary rapid-focus systems for whole slide imaging are provided, a first system including two pinhole-modulated cameras mounted on the eyepiece ports of a microscope platform/assembly, and a second system including one pinhole-modulated camera mounted on the epi-illumination arm for auto-focusing.

A radiation detection apparatus comprising, a sensor panel including sensor unit disposed on a plurality of photoelectric converters on a substrate, a first scintillator layer disposed on the sensor panel, and a second scintillator layer disposed on the first scintillator layer, wherein the first scintillator layer and the second scintillator layer respectively emit light beams having different wavelengths, and the sensor unit which includes a first photoelectric converter configured to detect the light beam emitted by the first scintillator layer, a first transistor configured to output a signal from the first scintillator layer, a second photoelectric converter configured to detect the light beam emitted by the second scintillator layer, and a second transistor configured to output a signal from the second scintillator layer, and individually convert the light beams having the different wavelengths into electrical signals.

In a method and system to generate an excitation in an examination subject to acquire magnetic resonance signals from a region of the examination subject, basic magnetic field is generated, an adiabatic half-passage (AHP) pulse is radiated to generate a transverse magnetization in the subject, and at least one first and one second adiabatic full-passage (AFP) pulse is radiated to generate a slice-selective rephasing of the transverse magnetization. The time interval between the first adiabatic half-passage pulse and the first adiabatic full-passage pulse is at least 37 ms, and the time interval between the first adiabatic full-passage pulse and the second adiabatic full-passage pulse is at least 75 ms.

The invention relates to a battery cell (1), in particular a lithium-ion cell, having at least one positive electrode (2), at least one negative electrode (3) and connections (4) which are connected in an electrically conductive manner to the electrodes (2, 3) for electrically contacting the battery cell (1). The battery cell (1) comprises a device (5) for monitoring at least one parameter of the battery cell (1) and the device (5) comprises at least one sensor (6, 7, 8, 9).

A combined earth-star sensor system (1) for three-axis attitude determination of satellites in space comprises separate apertures with different directions of observation and common image pickup devices (4) for the earth sensor and the star sensor. A common optical arrangement (2) for earth observation and start observation, and a deflection mirror (3) for derivation of the laterally entering light from the earth, to the common optical arrangement (2) may be provided. In one focal plane there is a focal plane sensor with an array of image pickup devices (4) with the integration time being controllable. An evaluation unit determines the orbit and the attitude of the space vehicle from the attitude and movement of the stars and of the rim of the earth in the focal plane.

A battery system comprises at least one battery module and a docking station on which the at least one battery module is arranged in a separately removable manner. Preferably, the docking station comprises supply and/or power connections for the battery system.

A spectrometer (110) including a triggering element (124) for generating a series of trigger signals, a first laser (10) for emitting toward a sample (112) a first laser light pulse (118) having a first wavelength in response to receiving each of the trigger signals, the first laser (10) being wavelength tunable so that the first wavelength is selectively variable; a second laser (114) for emitting toward the sample a second laser light pulse (120) having a second wavelength in response to receiving each of the trigger signals from the series of trigger signals; a dithering element (128) for selectively retarding transmission of the trigger signals to at least one of the first and second lasers such that the first and second laser light pulses (118, 120) are received at the sample substantially non-simultaneously; a delaying element (126) for retarding transmission of the trigger signals to at least one of the first and second lasers in a manner such that the first and second laser light pulses (118, 120) are received at the sample substantially simultaneously when the dithering element (128) is inactive state.

Registering energy consumption in part of a building, an item of state information of at least one energy load being acquired, the state information being transmitted to a control center, and the state information, a state duration and a specific statement of the consumption of the energy load being used to determine and evaluate the energy consumption in the control center. It is possible to dispense with separate energy consumption measuring units as a result of the energy consumption being registered by multiplying the switched-on duration by a specific statement of the energy consumption (that is to say power) of the energy load.

An electronic circuitry of a spectrometer, configured to electrically connect with an optical sensor of the spectrometer, includes a memory unit configured to store a measurement setting, a trigger line configured to transmit at least one trigger signal, and a control unit electrically connected to the trigger line and the memory unit. The control unit is configured to receive the trigger signal from the trigger line so as to instruct the spectrometer to perform a plurality of exposure measurements continuously under the measurement setting, and to save a plurality of spectral data acquired from the exposure measurements into the memory unit. A spectrometer using the electronic circuitry for performing the exposure measurements and a measuring method of the spectrometer are also provided.

Provided is an object information acquiring apparatus having: a receiver in which a plurality of receiving elements to receive acoustic signals based on an acoustic wave propagated from an object is disposed on a two-dimensional surface, the plurality of receiving elements being divided into a plurality of receiving element groups including at least one receiving element respectively; a corrector that corrects signals received by the receiver; and a processor that acquires characteristic information in the object using the signals corrected by the corrector, wherein the receiver receives the acoustic signals for each of the plurality of receiving element groups with a time difference, and acquires the received signals, and the corrector corrects a time-based deviation.

A vehicle control device includes a lane shape acquisition unit which acquires lane shape data of a lane of a predetermined region from map information, at a stage at which a host vehicle has arrived at the predetermined region or prior to the host vehicle arriving at the predetermined region, a peripheral image acquisition unit which acquires peripheral image data including lane markings of the predetermined region, and a lane marking selection unit which collates the acquired lane shape data with the peripheral image data, and from within the peripheral image data, selects lane markings to be used at least for lane keeping.