Abstract:
A collecting device (200) for collecting airborne particles comprises: a first (202) and second layer (220) spaced apart for forming a particle collection chamber (240) therebetween, wherein inlets (210) extend through the first layer (202) for transporting a flow of air into the particle collection chamber (240); wherein ends (214) of the inlets (210) face a first surface (222) of the second layer (220) for capturing airborne particles by impaction; wherein outlets (230) extend through the second layer (220) for transporting the flow of air out of the particle collection chamber (240); wherein the inlets (210) and outlets (230) are staggered such that the center axes of the inlets (210) and outlets (230) are displaced from each other; wherein the flow of air experiences a pressure drop lower than 3 kPa at a flow rate of 0.5 liters per second, when the flow of air passes the collecting device (200).
Abstract:
The present invention provides a micro-reactor (1) adapted to host chemical reactions having at least one microfluidic layer, said micro-reactor (1) comprising a fluid inlet (2) and a fluid outlet (3); a plurality of micro-reaction chambers (10) arranged in rows (7) and columns (6), each micro-reaction chamber comprising a chamber inlet (10a) and a chamber outlet (10b); a plurality of supply channels (4) for supplying fluid to from said fluid inlet (2) to said micro-reaction chambers (10) and further arranged for draining said micro-reaction chambers (10) to said fluid outlet (3), said supply channels (10) extending in a first direction (D1) along the columns (6) of micro-reaction chambers (10) and arranged such that there is one supply channel (4) between adjacent columns (6). The micro-reaction chambers (10) in the columns (6) are arranged such that the chamber inlets (10a) of a column are in fluid contact with the same supply channel (4) and the chamber outlets (10b) are in fluid contact with the supply channel (4) adjacent to the supply channel (4) arranged in fluidic contact with the chamber inlets (10a). Further, the plurality of supply channels (4) comprises a first end supply channel (4a) arranged for supplying fluid to a first end column (6a) of the micro-reaction chambers (10) and a second end supply channel (4b) arranged for draining fluid from the second, opposite, end column (6b) of said micro-reaction chambers (10); and wherein the micro-reactor (1) further comprises at least one reagent inlet (8) in fluid contact with the first end supply channel 4a and a reagent outlet (9) in fluid contact with the second end supply channel such that reagents introduced to the at least one reagent inlet (8) fill the plurality of micro-reaction chambers (10) in a second direction (D2) along the rows (7) of micro-reaction chambers (10) to the reagent outlet (9).
Abstract:
A semiconductor cell culture device for three-dimensional cell culture comprises: a semiconductor material layer in which a cell culture portion of semiconductor material is defined, wherein the cell culture portion defines an area within the semiconductor material layer surrounded by semiconductor material, wherein the cell culture portion comprises a mesh structure having island structures being interconnected by bridge structures and defining through-pores between the island structures allowing for selective transport of cell constructs, cellular components, proteins or other large molecules through the semiconductor material layer and on opposite sides of the cell culture portion in the semiconductor material layer, and a supporting structure connected to the cell culture portion.
Abstract:
A spectroscopic apparatus and method for analyzing a biological material are provided. The spectroscopic apparatus may analyze a biological material which has an internal non-uniform tissue depending on a position thereof. The apparatus may include at least one detector configured to obtain respective detection spectrums corresponding to a plurality of measurement regions that are at mutually different positions of the biological material, and an information processor to determine whether the measurement regions are normal by mutually comparing the detection spectrums, or converting contribution degrees of data for a specific component of the biological material by differentiating the detection spectrums.
Abstract:
A method for monitoring a monitor material of a process, such as a manufacturing process, comprises: detecting a suspicious particle in a sample of the monitor material using an imaging system configured to image the sample using illumination light from a light source and to detect an interference pattern based on object light having interacted with the sample and reference light of the illumination light; selectively diverting the suspicious particle rom a flow of the sample to an analysis flow; activating a nucleic acid test (NAT) device, wherein said activating is triggered based on detecting of the suspicious particle in the sample; receiving by the NAT device the analysis flow comprising the suspicious particle; and subjecting the suspicious particle to a NAT analysis. Also, an apparatus for monitoring a monitor material is provided.
Abstract:
The present disclosure relates to systems, methods, and sensors configured to characterize a radiation beam. At least one embodiment relates to an optical system. The optical system includes an optical radiation guiding system. The optical radiation guiding system includes a collimator configured to collimate the radiation beam into a collimated radiation beam. The optical radiation guiding system also includes a beam shaper configured to distribute power of the collimated radiation beam over a discrete number of line shaped fields. A spectrum of the collimated radiation beam entering the beam shaper is delivered to each of the discrete number of line shaped fields. The optical system further includes a spectrometer chip. The spectrometer chip is configured to process the spectrum of the collimated radiation beam in each of the discrete number of line shaped fields coming from the beam shaper.
Abstract:
A collecting device (200) for collection of particles and presentation of collected particles for analysis comprises: a first layer (202) and a second layer (220) spaced apart for defining a particle collection chamber (240); wherein the first layer (202) is configured to receive a flow of air (104) carrying airborne particles, wherein the first layer (202) comprises a plurality of inlet nozzles (210) configured to extend through the first layer (202) for transporting the flow of air (104) therethrough; wherein the inlet nozzles (210) are configured to face a first surface (222) of the second layer (220) for capturing airborne particles in the flow of air (104) entering the particle collection chamber (240) by impaction of airborne particles; wherein the collecting device (200) is configured to provide optical access for performing a measurement, based on light, of airborne particles collected in the particle collection chamber (240).
Abstract:
A spectral detector includes a plurality of spectral detection units, each of the spectral detection units including an optical signal processor configured to deliver an optical signal incident to the spectral detection unit to an outside of the spectral detection unit, and a resonator configured to modulate a spectrum of an optical signal incident to the optical signal processor by interacting with the optical signal processor, at least some of the resonators of the plurality of spectral detection units having different lengths from each other, and a number of optical signal processors included in each respective spectral detection unit varying according to a length of the resonator included in the respective spectral detection unit.
Abstract:
A spectroscopy system includes detectors configured to obtain detection spectrums of respective detection areas that are located at different positions of an object; and an information processor configured to obtain a target spectrum of a target area by using position information of the detection areas and the detection spectrums obtained by the detectors.