Abstract: A method for producing an acid-reactive glass powder, an acid-reactive glass powder obtained by the method, and a dental glass ionomer cement composition comprising the acid-reactive glass powder. The dental glass ionomer cement composition has good mixing property, a sufficient working time, and simultaneously can make the dental glass ionomer cement composition exhibit superior mechanical properties. More specifically, a method for producing an acid-reactive glass powder wherein an acid-reactive glass powder having a range of 2 to 10 ?m of a 50% particle size is obtainable by pulverizing a large-particle-size acid-reactive glass powder having a range of 250 to 3000 ?m of a 50% particle size in a state where a small-particle-size acid-reactive glass powder having a range of 1 to 5 ?m of a 50% particle size coexists.

Abstract: The present invention relates to a lithium transition metal composite oxide capable of being used as a positive electrode (cathode) active material for non-aqueous electrolyte lithium secondary batteries having a general formula Li1+a(1?x?y?z)M1xM2yM3(1?a)(1?x?y?z)M3?a(1?x?y?z)M4zO2+a(1?x?y?z), in which 0.7?x<1, y=(1?x)/2, 0?z?0.05 and 0<a(1?x?y?z)?0.05, and where M1 is Ni having an oxidation state of three, M2 is one or more metal cations having an oxidation state of three, M3? and M3 are identically one or more metal cations with at least one ion being Mn, wherein the one or more metal cations M3 have an oxidation state of four and the one or more metal cations M3 have an oxidation state of three, and M4 is one or more metal cations selected from of Mg, Al and B. Further, the present invention relates and a method for preparing the lithium transition metal composite oxide and to a non-aqueous electrolyte lithium secondary battery containing the lithium transition metal composite oxide.

Abstract: Provided is a battery module that allows suppressing impairment of battery performance, through suitable control of a restraining pressure that is exerted in the stacking direction of a stack, also in a case where unit cells expand/shrink when charged/discharged. The battery module is provided with a stack in which a plurality of unit cells is stacked, and with a pressure regulation member, which is disposed at least at one site from among a gap between the stacked unit cells, and a first end and a second end in the stacking direction, and which regulates a restraining pressure exerted in the stacking direction of the stack. The pressure regulation member is provided with a liquid holding section and a liquid storage section. The liquid holding section is provided with a liquid holding body capable of holding a liquid. The liquid storage section has a space capable of storing the liquid.

Abstract: A secondary battery includes: a cathode; an anode; and a nonaqueous electrolytic solution. The anode includes an anode active material containing an electrode compound, the electrode compound inserting and extracting an electrode reactant at a potential (a potential to lithium) of 1 V to 3 V both inclusive, and a metal salt containing one or both of a carboxylic acid compound and a sulfonic acid compound.

Abstract: Provided is a battery module that allows suppressing impairment of battery performance, through suitable control of a restraining pressure that is exerted in the stacking direction of a stack, also in a case where unit cells expand/shrink when charged/discharged. The battery module is provided with a stack in which a plurality of unit cells is stacked, and with a pressure regulation member, which is disposed at least at one site from among a gap between the stacked unit cells, and a first end and a second end in the stacking direction, and which regulates a restraining pressure exerted in the stacking direction of the stack. The pressure regulation member is provided with a liquid holding section and a liquid storage section. The liquid holding section is provided with a liquid holding body capable of holding a liquid. The liquid storage section has a space capable of storing the liquid.

Abstract: A secondary battery includes a positive electrode including a positive electrode active material layer having a positive electrode active material, a negative electrode including a negative electrode active material layer having a negative electrode active material, and an electrolyte. The positive electrode active material contains either a lithium iron phosphate compound having an olivine structure or lithium-manganese composite oxide having a spinel structure. The negative electrode active material contains titanium-containing inorganic oxide. In the secondary battery, electrode areas of the positive electrode and the negative electrode, and first charge capacities and irreversible capacities per unit area of the positive electrode and the negative electrode satisfy predetermined formulas.

Abstract: A secondary battery includes a positive electrode including a positive electrode active material layer having a positive electrode active material, a negative electrode including a negative electrode active material layer having a negative electrode active material, and an electrolyte. The positive electrode active material contains at least either a lithium iron phosphate compound having an olivine structure or lithium-manganese composite oxide having a spinel structure. The negative electrode active material contains titanium-containing inorganic oxide. In the secondary battery, electrode areas of the positive electrode and the negative electrode, and first charge capacities and irreversible capacities per unit area of the positive electrode and the negative electrode satisfy predetermined formulas.

Abstract: A secondary battery includes: a cathode; an anode; and a nonaqueous electrolytic solution. The anode includes an anode active material containing an electrode compound, the electrode compound inserting and extracting an electrode reactant at a potential (a potential to lithium) of 1 V to 3 V both inclusive, and a metal salt containing one or both of a carboxylic acid compound and a sulfonic acid compound.

Abstract: A secondary battery capable of suppressing resistance rise even after repeated charge and discharge is provided. The secondary battery includes a cathode, an anode, and an electrolytic solution. The anode contains titanium-containing lithium composite as an anode active material, and the electrolytic solution contains cyclic disulfonic acid anhydride.

Abstract: A secondary battery capable of suppressing resistance rise even after repeated charge and discharge is provided. The secondary battery includes a cathode, an anode, and an electrolytic solution. The anode contains titanium-containing lithium composite as an anode active material, and the electrolytic solution contains cyclic disulfonic acid anhydride.

Abstract: Volume data formed of tomographic images (medical images) is stored in a storage unit of a data center. Recorded in a tag area of each tomographic image is site information indicating the site contained in each tomographic image. A data server of the data center reads the volume data from the storage unit in response to a transmission request from a medical facility. Then, the data server extracts from the volume data the tomographic images of the same site as designated by the transmission request. The data server transmits the extracted tomographic images to the medical facility which made the transmission request.

Abstract: An image server has a medical image DB for storing plural medical images, an anatomical illustration DB for storing plural anatomical illustrations that are used for comparison with the medical images, and an attribute information DB. In the attribute information DB, a file name of each anatomical illustration and a site depicted in each anatomical illustration are associated with each other. Upon receipt of a transfer request of anatomical illustration from a client terminal, a CPU of the image server reads out a medical image corresponding to the file name included in the transfer request from the medical image DB. The CPU inputs the read out medical image to a site recognizing section and to recognize the site being shot. The CPU then reads out an anatomical image corresponding to the site recognized by the site recognizing section from the anatomical illustration DB and transfers it to the client terminal.

Abstract: A medical image transfer system consists of a plurality of transfer servers for transferring individually a medical image from a modality to an image server, and a control server for controlling the transfer servers. The transfer server sends information tagged to the medical image to the control server, to inquire about a destination of the medical image and an editorial process to be executed on the tagged information to adapt it to the destination. The control sever determines one of the image servers as the destination on the basis of the tagged information as received from the transfer server, and notifies of the destination and the editorial process necessary for the destination as a response to the inquiry. The transfer server executes the assigned editorial process on the tagged information and then transfers the medical image with the processed tagged information to the assigned destination.

Abstract: Volume data formed of tomographic images (medical images) is stored in a storage unit of a data center. Recorded in a tag area of each tomographic image is site information indicating the site contained in each tomographic image. A data server of the data center reads the volume data from the storage unit in response to a transmission request from a medical facility. Then, the data server extracts from the volume data the tomographic images of the same site as designated by the transmission request. The data server transmits the extracted tomographic images to the medical facility which made the transmission request.