Abstract: A food provision support system according to an aspect of the present disclosure sets purpose information indicating a purpose of health promotion of a subject, the purpose information including at least information on a disease that the subject is affected; acquires demand information indicating a demand related to a menu for the subject; determines, using a learning model, a menu indicating a dietary content that includes a food according to the disease indicated in the purpose information and that is relevant to the demand the learning model learned a relationship between the purpose information and the demand of the subject and the menu provided to the subject by machine learning; and requests delivery of a food relevant to the determined menu to the subject.

Abstract: A semiconductor device capable of improving the quality of a pixel region, an electronic apparatus including the semiconductor device, and a method for manufacturing the semiconductor device are to be provided. The present technology provides a semiconductor device that includes: a first substrate in which a pixel region including a pixel having a photoelectric conversion unit is formed; and a second substrate in which a logic circuit that processes a signal output from the pixel region is formed, the first substrate and the second substrate being stacked.

Abstract: The present invention relates to an operating liquid for Piezo-mediated microinjection. In particular, the present invention relates to use of purified perfluoron-octane or a composition comprising purified perfluoro-n-octane as operating liquid for Piezo-mediated intracytoplasmic sperm injection (Piezo-ICSI). The present invention further relates to methods of fertilising an oocyte in vitro by Piezo-ICSI using purified perfluoro-n-octane or a composition comprising purified perfluoro-noctane as operating liquid and methods of assisted reproduction using methods of the invention.

Abstract: An aspect of the polarization conversion element according to the invention is directed to a polarization conversion element including a first optical block including a first polarization separation film, a first reflecting film, a first surface, and a first light incidence surface, and a second optical block including a second polarization separation film, a second reflecting film, a second surface, and a second light incidence surface, wherein the first optical block and the second optical block are bonded to each other so that the first surface and the second surface are opposed to each other, the first polarization separation film is disposed so as to be opposed to the second polarization separation film via the first surface and the second surface, and the first polarization separation film is terminated at a position in the first surface separate from the first light incidence surface.

Abstract: A polarization conversion element includes first light transmissive substrates and second light transmissive substrates each of which has a light incident surface and a light exiting surface and which are disposed alternately, polarization separation films, reflection films, and retardation plates. One of each of the polarization separation films and a plasma polymerization film is formed on a first surface of each of the first light transmissive substrate. Each of the reflection films is formed on a second surface of each of the first light transmissive substrate. An adhesive layer is formed on a first surface of each of the second light transmissive substrates. The other of each of the polarization separation films and the plasma polymerization films is formed on a second surface of each of the corresponding second light transmissive substrates.

Abstract: An aspect of the polarization conversion element according to the invention is directed to a polarization conversion element including a first optical block including a first polarization separation film, a first reflecting film, a first surface, and a first light incidence surface, and a second optical block including a second polarization separation film, a second reflecting film, a second surface, and a second light incidence surface, wherein the first optical block and the second optical block are bonded to each other so that the first surface and the second surface are opposed to each other, the first polarization separation film is disposed so as to be opposed to the second polarization separation film via the first surface and the second surface, and the first polarization separation film is terminated at a position in the first surface separate from the first light incidence surface.

Abstract: A polarization conversion element includes first light transmissive substrates and second light transmissive substrates each of which has a light incident surface and a light exiting surface and which are disposed alternately, polarization separation films, reflection films, and retardation plates. One of each of the polarization separation films and a plasma polymerization film is formed on a first surface of each of the first light transmissive substrate. Each of the reflection films is formed on a second surface of each of the first light transmissive substrate. An adhesive layer is formed on a first surface of each of the second light transmissive substrates. The other of each of the polarization separation films and the plasma polymerization films is formed on a second surface of each of the corresponding second light transmissive substrates.

Abstract: There is provided a coating material for a honeycomb structure, the coating material including inorganic particles or organic particles having D90/D10 of 5 to 50 with D10 of 50 ?m or less and D90 of 4 ?m or more (wherein D10 and D90 are values of 10% diameter and 90% diameter, respectively, in volume-based integrated fraction of a particle diameter distribution measured by a laser diffraction/scattering method from the smaller particle diameter side).

Abstract: A wavelength splitting element for splitting a multiplexed light beam into separate wavelength bands and emitting the beams from separate emission ports including a first filter for splitting the multiplexed light beam into light beams in wavelength band ?1, which passes in a first direction, and wavelength bands ?2 and ?3, which reflects; a second filter, for splitting the reflected light into light beams in wavelength band ?3, which passes in a second direction, and wavelength band ?2, which reflects in a third direction; and a third filter, for passing the light beam in the wavelength band ?2. The first filter passes the light beam in the wavelength band ?2 reflected by the second filter and incident to the first filter again based on an incident angle, and the third filter passes only the light beam in the wavelength band ?2 that the first filter passes in the third direction.

Abstract: A wavelength splitting element for splitting a multiplexed light beam in wavelength bands ?1, ?2 and ?3 into light beams in separate wavelength bands and emitting the split light beams from separate emission ports, includes: a first filter for splitting the multiplexed light beam in the wavelength bands ?1, ?2 and ?3 into a light beam in the wavelength band ?1 that the first filter passes in a first direction and into a light beam in the wavelength bands ?2 and ?3 that the first filter reflects; a second filter, which is provided in the direction of the light beam in the wavelength bands ?2 and ?3 that has been reflected by the first filter, for splitting the light beam in wavelength bands ?2 and ?3 that has been reflected by the first filter into a light beam in the wavelength band ?3 that the second filter passes in a second direction and into a light beam in the wavelength band ?2 that the second filter reflects; and a third filter, which is provided in the direction of the light beam that has been reflect

Abstract: There is provided a coating material for a honeycomb structure, the coating material including inorganic particles or organic particles having D90/D10 of 5 to 50 with D10 of 50 ?m or less and D90 of 4 ?m or more (wherein D10 and D90 are values of 10% diameter and 90% diameter, respectively, in volume-based integrated fraction of a particle diameter distribution measured by a laser diffraction/scattering method from the smaller particle diameter side).

Abstract: A polarization separating element such as a beam splitter receives a first light of a first polarization plane. The polarization separating element derives out of the first light a second light of a second polarization plane set perpendicular to the first polarization plane. A photoelectric element converts the second light into an electric signal. The intensity of the second light is in this manner detected. Since the second light is derived out of the first light, the phase of the second light is allowed to synchronize with the phase of the first light. The extinction ratio of the second light accurately reflects the extinction ratio of the first light. The detection of the intensity of the second light at the photoelectric element enables an accurate detection of the intensity of the first light.

Abstract: A piezoelectric/electrostrictive element including a substantially trapezoidal laminate having narrower and wider surfaces lying substantially in parallel to each other and first and second surfaces opposed to each other between the narrower and wider surfaces. The first and second surfaces are inclined at given angles to one of the narrower and wider surfaces. The laminate includes piezoelectric/electrostrictive layers and interposed internal electrodes, the internal electrodes being broken up into a first and a second group, each of the first group internal electrodes lying over one of the second group internal electrodes through one of the piezoelectric/electrostrictive layers. A first external electrode is formed on the first surface of the laminate and is coupled to the first group internal electrodes. A second external electrode is formed on the second surface of the laminate and is coupled to the second group internal electrodes.

Abstract: A polarization separating element such as a beam splitter receives a first light of a first polarization plane. The polarization separating element derives out of the first light a second light of a second polarization plane set perpendicular to the first polarization plane. A photoelectric element converts the second light into an electric signal. The intensity of the second light is in this manner detected. Since the second light is derived out of the first light, the phase of the second light is allowed to synchronize with the phase of the first light. The extinction ratio of the second light accurately reflects the extinction ratio of the first light. The detection of the intensity of the second light at the photoelectric element enables an accurate detection of the intensity of the first light.

Abstract: An electroplating base includes a separate electrically conductive section isolated from an electrically conductive section. An electrically conductive connecting pattern connects the separate electrically conductive section to the electrically conductive section. Electroplating allows establishment of electroplating films on the electrically conductive section and the separate electrically conductive section. A non-conductive path extends in the electroplating base from a point of a non-conductive section to a point of the non-conductive section. The ends of the non-conductive path are connected to the non-conductive section, so that generation of electroplating films is reliably avoided at the ends of the non-conductive path. The obtained non-conductive section and non-conductive path serve to reliably insulate the electroplating film on the electrically conductive section and the electroplating film on the separate electrically conductive section from each other.

Abstract: A laminate-type piezoelectric device includes: a piezoelectric layer (2); and an internal electrode layer (3) which is laminated on the piezoelectric layer (2), has a lower surface flat along a surface of the piezoelectric layer (2) and has an edge sidewall in its tip portion having an inclined surface (3A) making an acute angle with respect to the surface of the underlying piezoelectric layer (2). The piezoelectric layers (2) and the internal electrode layers (3) are alternately laminated on each other.

Abstract: An interactive data analysis support apparatus for supporting the analysis of data comprises: a cross tabulation display device for displaying according to specified summing up conditions a cross tabulation in which data to be analyzed is cross summed up, a cell specifying device for specifying at least one cell among a number of cells constituting the cross tabulation, and a graph display device for displaying the data to be analyzed as a graph within the range of the cell specified by the cell specifying device.

Abstract: A laminate-type piezoelectric device includes: a piezoelectric layer (2); and an internal electrode layer (3) which is laminated on the piezoelectric layer (2), has a lower surface flat along a surface of the piezoelectric layer (2) and has an edge sidewall in its tip portion having an inclined surface (3A) making an acute angle with respect to the surface of the underlying piezoelectric layer (2). The piezoelectric layers (2) and the internal electrode layers (3) are alternately laminated on each other.

Abstract: A piezoelectric/electrostrictive element including a substantially trapezoidal laminate having narrower and wider surfaces lying substantially in parallel to each other and first and second surfaces opposed to each other between the narrower and wider surfaces. The first and second surfaces are inclined at given angles to one of the narrower and wider surfaces. The laminate includes piezoelectric/electrostrictive layers and interposed internal electrodes, the internal electrodes being broken up into a first and a second group, each of the first group internal electrodes lying over one of the second group internal electrodes through one of the piezoelectric/electrostrictive layers. A first external electrode is formed on the first surface of the laminate and is coupled to the first group internal electrodes. A second external electrode is formed on the second surface of the laminate and is coupled to the second group internal electrodes.

Abstract: A method of producing a piezoelectric/electrostrictive device in which a piezoelectric/electrostrictive element including a substantially trapezoidal laminate having narrower and wider surfaces lying substantially in parallel to each other and first and second surfaces opposed to each other between the narrower and wider surfaces. The first and second surfaces are inclined at given angles to one of the narrower and wider surfaces. The laminate includes piezoelectric/electrostrictive layers and interposed internal electrodes, the internal electrodes being broken up into a first and a second group, each of the first group internal electrodes lying over one of the second group internal electrodes through one of the piezoelectric/electrostrictive layers. A first external electrode is formed on the first surface of the laminate and is coupled to the first group internal electrodes. A second external electrode is formed on the second surface of the laminate and is coupled to the second group internal electrodes.