Abstract: In measurement data selection, when a vector composed of measurement data obtained for respective combinations of light emitting positions, light detection positions, and resolving times in a time-resolved waveform is given as y, a vector in which pixel values of learning image data are components is given as x, and a system matrix for calculating internal image data from the measurement data is given as A1, the vector y which meets the conditional expressions (2) and (3) min?y?00??(2), ?x?A1Ty?22??2??(3) or the conditional expression (4) min(?y?00+??x?A1Ty?22)??(4) is determined, and upon measurement of a subject, only the measurement data corresponding to nonzero components of the vector y is used to prepare the internal image data.

Abstract: The bioinstrumentation apparatus includes a light irradiation unit irradiating a measurement region with light, a light detection unit detecting diffused light from the measurement region, and a computing unit generating a reconstructed image for the interior of the measurement region. The computing unit calculates J coefficients wj set for every pixel of the reconstructed image and more than 0 and not more than 1 (where J is the number of pixels of the reconstructed image) and carries out successive approximation computation by the following iterative formula xj(k+1)=xj(k)+wjdj(k) (where k is an integer from 1 to N, N is the number of times of iterative computation, xj(k) is a pixel value of the jth pixel on the kth iterative computation, and dj(k) is an update amount of the jth pixel on the kth iterative computation) to generate the reconstructed image.

Abstract: This invention provides compounds including peptides and peptidomimetics that can be used to treat cell proliferative disorders, such as those associated with benign and malignant tumor cells. While the invention is not limited to any particular mechanism, the compounds of the invention appear to function at least in part by inhibiting G2 cell cycle checkpoint. Thus, invention compounds can be used to inhibit cell growth alone or be used in combination with a nucleic acid damaging treatment to inhibit cell growth.

Abstract: In a sensor element 101, a reference gas regulation pump cell 90 pumps in oxygen to the periphery of a reference electrode 42 in which a reference gas is introduced, by the flow of a control current Ip3 between the reference electrode 42 and an outer pump electrode 23 located in a region exposed to a measurement-object gas. An average current density of the reference electrode 42 under the flow of this control current Ip3 is higher than 0 ?A/mm2 and lower than 400 ?A/mm2. The average current density is preferably not higher than 170 ?A/mm2. An average value of the control current Ip3 is preferably higher than 1 ?A. The outer pump electrode 23 as a measurement-object gas side electrode of the reference gas regulation pump cell 90 may be provided on an outer surface of a layered body (or more specifically, on a second solid electrolyte layer 6).

Abstract: In a sensor element 101, a fourth diffusion rate-controlling portion 54 includes a diffusion rate-controlling portion 54a. The diffusion rate-controlling portion 54a is formed between one or more and three or less surfaces, e.g., an upper surface 58a, of upper, lower, left and right inner peripheral surfaces of a measurement-object gas flowing portion and a partition wall 56. A measurement electrode 44 is formed on one, e.g., a lower surface 62b, of upper, lower, left and right inner peripheral surfaces of a third inner cavity 61, the one surface being different in orientation from the surface along which the diffusion rate-controlling portion 54a is formed. The diffusion rate-controlling portion 54 and the measurement electrode 44 may be formed on surfaces opposite to each other. A distance L between the measurement electrode 44 and the diffusion rate-controlling portion 54a may be 0.1 mm or more.

Abstract: A method for setting a temperature rising profile of a sensor element in the activation of a gas sensor is capable of quickly increasing the temperature of the sensor element while reliably preventing or reducing the occurrence of a crack. The method includes Weibull plotting a failure rate that is a cumulative frequency at which a crack occurs as a result of the rapid temperature rising of the sensor element, identifying a temperature-rising-rate upper limit from the plotting results, determining, based on the temperature-rising-rate upper limit, a temperature-rise upper limit curve, and determining, as an appropriate function, a temperature rising profile in a range in which a temperature rising rate at an appropriate temperature does not exceed values on the temperature-rising-rate upper limit curve for the temperature.

Abstract: Provided is a gas sensor free from an unbonded space being in communication with an internal space. A gas sensor, which includes a sensor element including a plurality of layers that are bonded and formed of an oxygen-ion conductive solid electrolyte and which reduces a predetermined gas component of a measurement gas to identify a concentration of the gas component on the basis of a current flowing through the solid electrolyte, includes an internal space in which a measurement gas having the ability to reduce the gas component is provided. Of the plurality of layers, an interlaminar bonding layer, which bonds a layer forming a bottom surface of the internal space and a layer forming a side surface of the internal space, projects into the internal space.

Abstract: In measurement data selection, when a vector composed of measurement data obtained for respective combinations of light emitting positions, light detection positions, and resolving times in a time-resolved waveform is given as y, a vector in which pixel values of learning image data are components is given as x, and a system matrix for calculating internal image data from the measurement data is given as A1, the vector y which meets the conditional expressions (2) and (3) min?y?00??(2), ?x?A1Ty?22??2??(3) or the conditional expression (4) min(?y?00+??x?A1Ty?22)??(4) is determined, and upon measurement of a subject, only the measurement data corresponding to nonzero components of the vector y is used to prepare the internal image data.

Abstract: A tag management device includes an acquisition unit, an evaluation unit and an output unit. The acquisition unit acquires a category of a target item. The evaluation unit extracts use information corresponding to the category of the target item from a storage unit that stores use information indicating use of a tag already assigned to an item, and evaluates a tag assignable to the target item based on the use information. The output unit outputs an evaluation result by the evaluation unit to a terminal of an offerer of the target item.

Abstract: This invention provides compounds including peptides and peptidomimetics that can be used to treat cell proliferative disorders, such as those associated with benign and malignant tumor cells. While the invention is not limited to any particular mechanism, the compounds of the invention appear to function at least in part by inhibiting G2 cell cycle checkpoint. Thus, invention compounds can be used to inhibit cell growth alone or be used in combination with a nucleic acid damaging treatment to inhibit cell growth.

Abstract: A mixing device used in a fluidized catalytic cracking apparatus which mixes feed and a catalyst includes a cylindrical reaction container which supplies a catalyst in a vertical direction; a plurality of feed injection nozzles arranged along an outer circumference of the reaction container; and a catalyst flow regulator which is provided in the reaction container and regulates a flow of the catalyst in the vicinity of the feed injection nozzles. The catalyst flow regulator has no feed supply function and forms a catalyst moving bed having a hollow tubular shape which is coaxial with the reaction container in the vicinity of the feed injection nozzles. The catalyst flow regulator can effectively prevent backward flow of injected fuel. Although the mixing device has a simple structure, it has a high cracking rate and maintenance of the fluidized catalytic cracking apparatus can be performed easier.

Abstract: An apparatus for inspecting a thermal assist type magnetic head is configured to include a scanning probe microscope unit comprising a cantilever having a probe with a magnetic film formed on the surface of a tip portion thereof; a prober unit which provides an alternating current to a terminal formed on the thermal assist type magnetic head element; a scattered light detection unit which detects scattered light generated from the probe; and a signal process unit which detects defect by using an output signal from the scanning probe microscope unit by scanning the surface of the thermal assist type magnetic head element with the probe in a state that the magnetic field is generated and the near-field light is stopped, and an output signal from the scattered light detection unit by scanning the surface with the probe while near-field light is generated and the magnetic field is off.

Abstract: A gas sensor is provided with a multilayer body of solid electrolyte layers, a measurement electrode, a reference electrode, a reference gas introduction layer, a detection unit and a heater. The reference electrode and the measurement electrode are formed directly on the same first solid electrolyte layer. Thus, heat from the heater is transferred from a third substrate layer to the first solid electrolyte layer, and also to the reference electrode and the measurement electrode through the same first solid electrolyte layer. The reference electrode is covered with a reference gas introduction layer, formed of a porous body. The transference of heat from the heater to the reference electrode through the reference gas introduction layer is smaller than the transference of heat from the heater to the reference electrode through the first solid electrolyte layer on which the reference electrode is formed directly.

Abstract: The bioinstrumentation apparatus includes a light irradiation unit irradiating a measurement region with light, a light detection unit detecting diffused light from the measurement region, and a computing unit generating a reconstructed image for the interior of the measurement region. The computing unit calculates J coefficients wj set for every pixel of the reconstructed image and more than 0 and not more than 1 (where J is the number of pixels of the reconstructed image) and carries out successive approximation computation by the following iterative formula xj(k+1)=xj(k)+wjdj(k) (where k is an integer from 1 to N, N is the number of times of iterative computation, xj(k) is a pixel value of the jth pixel on the kth iterative computation, and dj(k) is an update amount of the jth pixel on the kth iterative computation) to generate the reconstructed image.

Abstract: An apparatus for inspecting a thermal assist type magnetic head is constituted by a scanning probe microscope means including a cantilever having a probe with a magnetic film formed on the surface of a tip portion thereof; a probe unit which provides an alternating current to a terminal formed on the thermal assist type magnetic head element and causes a pulse drive current or pulse drive voltage; a scattered light detection means which scans the near-field light emitting part with the probe to detect the scattered light generated from the probe in the generation region of the near-field light; an imaging means which image the thermal assist type magnetic head element; and a signal process means inspects the thermal assist type magnetic head element and an output signal outputted from the scanning probe microscope means by scanning with the probe while providing an alternating current to the terminal.

Abstract: To reliably detect scattered light generated in the near field light generation area in the inspection of a thermal assist type magnetic head (herein after refer to magnetic head), the present invention provides a magnetic head inspection apparatus including: a scanning probe microscope including a cantilever having a probe with a magnetic film formed on the surface of the tip; a probe unit for supplying alternating current to a terminal formed in a magnetic head element, so that the laser beam is incident on the near field light emitting part; an imaging unit for taking an image of the probe unit and the magnetic head element; a scattered light detection unit for detecting the scattered light generated from the probe present in the generation area of the near field light of the magnetic head element, through a pinhole; and a signal processing unit for inspecting the magnetic head element.

Abstract: An apparatus for inspecting a thermal assist type magnetic head is configured to include a scanning probe microscope unit comprising a cantilever having a probe with a magnetic film formed on the surface of a tip portion thereof; a prober unit which provides an alternating current to a terminal formed on the thermal assist type magnetic head element; a scattered light detection unit which detects scattered light generated from the probe; and a signal process unit which detects defect by using an output signal from the scanning probe microscope unit by scanning the surface of the thermal assist type magnetic head element with the probe in a state that the magnetic field is generated and the near-field light is stopped, and an output signal from the scattered light detection unit by scanning the surface with the probe while near-field light is generated and the magnetic field is off.

Abstract: A gas sensor is provided with a multilayer body of solid electrolyte layers, a measurement electrode, a reference electrode, a reference gas introduction layer, a detection unit and a heater. The reference electrode and the measurement electrode are formed directly on the same first solid electrolyte layer. Thus, heat from the heater is transferred from a third substrate layer to the first solid electrolyte layer, and also to the reference electrode and the measurement electrode through the same first solid electrolyte layer. The reference electrode is covered with a reference gas introduction layer, formed of a porous body. The transference of heat from the heater to the reference electrode through the reference gas introduction layer is smaller than the transference of heat from the heater to the reference electrode through the first solid electrolyte layer on which the reference electrode is formed directly.

Abstract: A magnetic recording medium for high areal recording density that has excellent thermal fluctuation resistance and recording/reproduction characteristics, and a method of producing the same. The magnetic recording medium includes a glass substrate, an NiP layer having an oxide film on its surface provided on the glass substrate, a ground layer provided on the NiP layer, and a nonmagnetic intermediate layer provided on the ground layer. The magnetic recording medium further includes an exchange layer structure composed of a ferromagnetic layer and a nonmagnetic coupling layer provided on the nonmagnetic intermediate layer, and a magnetic recording layer provided on the exchange layer structure. The oxide film on the NiP layer is formed by introducing a small quantity of oxygen into a vacuum chamber of a sputter device. The formation and oxidation of the NiP layer are conducted at a temperature of not less than 140° C.

Abstract: A resin composition comprising: a polyimide comprising a recurring unit represented by the following formula (1):  wherein Ar0 is an aromatic hydrocarbon group having 6 to 15 carbon atoms, and R1 is at least one group selected from the group consisting of the divalent residual group obtained by removing two amino groups from an aliphatic diamine having 2 to 30 carbon atoms and the divalent residual group obtained by removing two amino groups from an alicyclic diamine having 4 to 30 carbon atoms, and a polyarylate or polyester carbonate. This resin composition has excellent heat resistance, dimensional stability and transparency. Particularly, the resin composition having excellent transparency is advantageously used as a molded product such as a flexible printed board.