Abstract: A manufacturing method of a hermetic container includes the steps of sandwiching a frame-like sealing material between a first glass substrate and a second glass substrate, irradiating first local heating light to a first region of the sealing material, and sealing the first glass substrate and the second glass substrate to each. The sealing is performed by irradiating, on a boundary between the first region of the sealing material and a second region of the sealing material which is adjacent to the first region and on which the first local heating light is not irradiated, second local heating light to heat and melt a portion of the second region adjacent to the boundary, during a period that viscosity of the sealing material at a portion of the first region adjacent to the boundary is equal to or lower than 1018 Pa·sec.

Abstract: An airtight container manufacturing method includes the steps of exhausting an inside of a container through a through-hole provided in the container, and arranging a spacer member along a periphery of the through-hole on an outer surface of the container. Additional steps include arranging a plate member having, at its periphery, grooves penetrating the plate member in its plate thickness direction so that a sealant will flow from the grooves to a side surface of the spacer member, with the spacer member and the through-hole covered by the plate member, and a gap is formed along the side surface of the spacer member between the plate member and the outer surface of the container, and sealing the container by arranging a cover member to cover the plate member via a sealant.

Abstract: A manufacturing method of a high-reliability hermetic container includes an assembling step of arranging, between first and second glass substrates, a sealing material including first and second straight line portions stretching in different directions and a coupling portion connecting these straight line portions, with a viscosity of the sealing material having a negative temperature coefficient, and a scanning sealing step of performing scanning to the first straight line portion and the coupling portion while irradiating local heating light at least once. Scanning to the second straight line portion and the coupling portion is performed while irradiating the local heating light at least once, and the assembling step further forms at least a part of the sealing material at the coupling portion with a film thickness thinner than the sealing material in a region adjacent to the coupling portion of the first straight line portion.

Abstract: Adherence between a sealing material and a glass substrate is assured, thereby improving airtightness of a hermetic container. A manufacturing method of the hermetic container has: an assembling step of sealing a first glass substrate and a second glass substrate through a circumferential sealing material having plural straight line portions and plural coupling portions which connect the plural straight line portions so as to define an internal space between the first glass substrate and the second glass substrate; and a sealing step of maintaining the internal space to a negative pressure to an outside after the assembling step, applying such local force as to compress the coupling portions of the circumferential sealing material in a thickness direction of the sealing material, and heating and melting the sealing material by irradiating local heating light to the sealing material, to seal the first glass substrate and the second glass substrate.

Abstract: A manufacturing method of a hermetic container, comprises: an assembling step of aligning a first glass substrate and a second substrate through a circumferential sealing material having plural straight line portions and plural coupling portions, so as to define an internal space between these substrates; and a sealing step of sealing the first glass substrate and the second glass substrate to each other, by performing a scanning step of performing scanning with local heating light, wherein the sealing step is performed in a state that local force is applied, thereby improving airtightness of the hermetic container.

Abstract: A manufacturing method of a hermetically sealed container, comprises steps of placing, on a first member, a first bonding material and a second bonding material having a larger compressibility in relation to a pressing force than a compressibility of the first bonding material, such that the first and second bonding materials are arranged side-to-side relationship, and the first bonding material has a height lower than a height of the second bonding material; pressing a second member to the second bonding material; heating and melting sequentially part by part the first bonding material; and cooling the first bonding material to bond together the first and second members.

Abstract: A carbon film is coated over the surface of a spacer. The carbon film has the following three features when the binding state of carbon is analyzed by X-ray photoelectron spectroscopy: (a) an integral area of a region of 284.5 eV or below is 27% or less of an integral area attributed to carbon, (b) an integral area of a region of 286.0 eV-287.0 eV is 18% or less thereof, and (c) an integral area of a region of 287.0 eV or above is 9% or more thereof.

Abstract: A joined unit of glass base members is provided, comprising first and second glass base members and a joining member which extends along opposing surfaces of the first and second glass base members, wherein glass base member is elastically deformed while being depressed in an internal direction of the glass base member in the vicinity of an end portion in a widthwise direction of the joining member, a boundary surface between the elastically deformed glass base member and the joining member and a surface of the elastically deformed glass base member, which are disposed in the vicinity of the end portion in the widthwise direction of the joining member, are positioned on an internal side of the glass base member, and an area, in which a residual stress is a compressive stress, is formed in the vicinity of the end portion in the widthwise direction of the joining member.

Abstract: A manufacturing method of an image displaying apparatus, having an airtight container with a vacuum interior, includes the steps of exhausting an inside of a container via a through-hole provided in the container, arranging a plate member on an outer surface of the container, the inside of which was exhausted, so as to close the through-hole, and sealing the container by arranging a cover member to cover the plate member and by bonding the arranged cover member and the outer surface of the container to each other via a sealant positioned between the cover member and the outer surface of the container. The sealing includes hardening the sealant after deforming the sealant by pressing the plate member, and the plate member has a terminal portion including a conductive material. Additional steps include providing an anode electrode in the airtight container, and performing the sealing in a state that the terminal portion is in contact with the anode electrode.

Abstract: An electric resistor element is provided outside of the image region. The electric resistor element and a potential regulating element are connected outside of the image region. A part of a surface of a front substrate other than a surface thereof opposite to the rear substrate and a part of a surface of a rear substrate other than a surface thereof opposite to the front substrate are connected by a high thermal conducting member. The electric resistor element is disposed between the part of the surface of the front substrate, which is connected to the part of the surface of the rear substrate by the high thermal conducting member, and the part of the surface of the rear substrate, which is connected to the part of the surface of the front substrate by the high thermal conducting member.

Abstract: A bonding member, which can achieve a sufficient degree of vacuum without forming a gap caused by air bubbles that have been released out through the surface of the bonding member, a bonding method, an image display apparatus, and a manufacturing method therefor. The bonding member 92 of a strip has a first portion 92a and a second portion 92b. The first portion 92a has a uniform thickness t1. The second portion 92b has a smaller thickness t2 than the thickness t1 of the first portion 92a and constitutes a side plane of the bonding member 92. The second portion 92b also has a shape such that a convexity and a concavity alternate along a longitudinal direction of the bonding member 92.

Abstract: A method of manufacturing a hermetically sealed container including a pair of substrates disposed in opposition to each other, a frame member disposed between the pair of substrates, and a bonding member bonding the substrate to the frame member, includes a bonding step of heating the bonding member for bonding the substrate to the frame member. The bonding step includes a measuring process for measuring a height of the bonding member in a direction perpendicular to the substrate, and a heating and pressing process for partially pressing the substrate to the bonding member while partially heating the bonding member. The heating and pressing process is conducted by scanning, along the bonding member, an area of the bonding member partially heated and an area of the substrate partially pressed.

Abstract: In an airtight container manufacturing method including sealing a through-hole by a cover, it secures sealing performance and restrains a sealant from flowing into the through-hole. The method comprises: (a) exhausting the inside of a container through the through-hole provided on the container; (b) arranging a plate member having, at its periphery, grooves penetrating the plate member in its plate thickness direction on the outer surface of the container the inside of which has been exhausted, so as to close up the through-hole; and (c) arranging the cover so as to cover the plate member via the sealant and bonding the cover and the outer surface of the container via the sealant, wherein the sealing includes hardening the sealant after deforming the sealant as pressing the plate member by the cover so that the sealant is positioned between the cover and the outer surface of the container via the grooves.

Abstract: In an airtight container manufacturing method including sealing a through-hole by a cover, it secures sealing performance and restrains a sealant from flowing into the through-hole. The method comprises: (a) exhausting the inside of a container through the through-hole provided on the container; (b) arranging a plate member having, at its periphery, grooves penetrating the plate member in its plate thickness direction on the outer surface of the container the inside of which has been exhausted, so as to close up the through-hole; and (c) arranging the cover so as to cover the plate member via the sealant and bonding the cover and the outer surface of the container via the sealant, wherein the sealing includes hardening the sealant after deforming the sealant as pressing the plate member by the cover so that the sealant is positioned between the cover and the outer surface of the container via the grooves.

Abstract: In airtight container manufacturing method including sealing a through-hole by a cover, it secures sealing performance and restrains sealant from flowing into the through-hole. The method comprises: (a) exhausting inside of a container through the through-hole; (b) arranging a spacer along periphery of the through-hole on an outer surface of the container the inside of which has been exhausted; (c) arranging a plate so that the spacer and the through-hole are covered by the plate and gap is formed along a side surface of the spacer between the plate and the container outer surface; and (d) arranging the cover to cover the plate and bonding the cover and the container outer surface via sealant positioned between the cover and the container outer surface, wherein the sealing includes hardening the sealant after deforming the sealant as pressing the plate by the cover so that the gap is infilled with the sealant.

Abstract: A method for producing an airtight container includes preparing an assembly having a first substrate and a frame member, the first substrate having an electron-emitting element formed on a first surface thereof, the frame member mounted on the first surface outside an area where the electron-emitting element is formed; forming a temporary assembly having the assembly and a second substrate by bringing the second substrate into contact with the frame member via a joining member such that an inner space is formed; melting the joining member by irradiating the joining member with a laser beam transmitted through the second substrate; and solidifying the melted joining member. The laser beam is applied such that an incident direction at an irradiation position on the joining member does not include components toward the interior of the frame member while the laser beam moves relative to the temporary assembly.

Abstract: A bonding member, which can achieve a sufficient degree of vacuum without forming a gap caused by air bubbles that have been released out through the surface of the bonding member, a bonding method, an image display apparatus, and a manufacturing method therefor. The bonding member 92 of a strip has a first portion 92a and a second portion 92b. The first portion 92a has a uniform thickness t1. The second portion 92b has a smaller thickness t2 than the thickness t1 of the first portion 92a and constitutes a side plane of the bonding member 92. The second portion 92b also has a shape such that a convexity and a concavity alternate along a longitudinal direction of the bonding member 92.

Abstract: A laser beam emitted from a laser oscillator unit passes through a first substrate and irradiates a sealing member. The sealing member irradiated with the laser beam is heated in accordance with the absorptance and thus softens and melts. The laser beam is reflected by the sealing member and the reflection reaches a detector unit. A computing unit transmits information, such as a correction value of the laser power, to a laser controlling unit on the basis of the information from the detector unit so that the melting state of the surface of the sealing member is kept constant. In this manner, the melting state of the sealing material can be maintained in an appropriate state.

Abstract: The present invention relates to a method for deuteration of a heterocyclic ring, which comprises subjecting a compound having a heterocyclic ring to sealed refluxing state in a deuterated solvent in the presence of an activated catalyst selected form a palladium catalyst, a platinum catalyst, a rhodium catalyst, a ruthenium catalyst, a nickel catalyst and a cobalt catalyst. In accordance with a method of the present invention, a hydrogen atom belonging to a heterocyclic ring of a compound having a heterocyclic ring can be very efficiently deuterated because temperature of deuteration reaction can be maintained at higher than boiling point of the solvent. Further, a method for deuteration of the present invention can be applied widely to deuteration of various compounds having a heterocyclic ring which are liable to decomposition under supercritical conditions or acidic conditions, leading to industrial and efficient deuteration of a compound having a heterocyclic ring.

Abstract: The method of manufacturing a hermetically sealed container improved is provided. The height of each location of a bonding member is measured across all the extending directions of the bonding member. The control computer decides a pressing force of a pressing cylinder for pressing and deforming the substrate so that a constant pressure is applied between a substrate and the bonding member based on the height of the bonding member of the position heated by a heater. Next, a rotating body, the heater, and the pressing cylinder, which are integrally fixed, are scanned along the bonding member. By the pressing force calculated by the control computer, the pressing cylinder is driven and the rotating body is pressed to the substrate side, while being rotationally driven, so that the light beam by the heater such as a laser device is irradiated.