Abstract: An image forming system includes an image forming apparatus, a server, and an audio device including an audio inputter. The server includes a text converter, a specific-word extractor, a job-specific-information manager, a storage, and a job setter. The text converter converts audio data input from the audio inputter to text information. The specific-word extractor extracts a specific word from the text information. The job-specific-information manager specifies a job corresponding to the specific word. The storage stores job specific information. The job setter sets the specified job as a job to be executed. The image forming apparatus includes a job executor that executes a job set in the server.

Abstract: An image forming system includes an image forming apparatus, a server, and an audio device including an audio inputter. The server includes a text converter, a specific-word extractor, a job-specific-information manager, a storage, and a job setter. The text converter converts audio data input from the audio inputter to text information. The specific-word extractor extracts a specific word from the text information. The job-specific-information manager specifies a job corresponding to the specific word. The storage stores job specific information. The job setter sets the specified job as a job to be executed. The image forming apparatus includes a job executor that executes a job set in the server.

Abstract: Provided is a scanning probe microscope with which measurement data and a distribution image of differential data of the measurement data can be displayed selectively or together, an edge enhancement image can be obtained, and user convenience is improved. A scanning probe microscope (200) includes: a distribution image calculator (40a) configured to calculate a one-dimensional or two-dimensional first distribution image (201) of measurement data, and a one-dimensional or two-dimensional second distribution image (202) of differential data of adjacent data elements of the measurement data; and a display controller (40b) configured to instruct the distribution image calculator to calculate at least one of the first distribution image or the second distribution image, and to display the calculated distribution image on a predetermined display.

Abstract: A scanning probe microscope includes: a cantilever; a cantilever supporting portion; a movement mechanism that moves a position of the cantilever; a light source that emits detection light; a detector that receives the detection light reflected on a reflecting surface of the cantilever; an objective lens; and a controller that controls the movement mechanism to perform a process including: detecting a spot position of a spot light of the detection light; detecting a position of the cantilever from an image captured by the imaging device; and controlling the movement mechanism based on the spot position, the position of the cantilever, an incident angle of the detection light, and the attachment angle such that the detection light is reflected on the reflecting surface when the cantilever is attached to the cantilever supporting portion.

Abstract: Provided is a scanning probe microscope with which measurement data and a distribution image of differential data of the measurement data can be displayed selectively or together, an edge enhancement image can be obtained, and user convenience is improved. A scanning probe microscope (200) includes: a distribution image calculator (40a) configured to calculate a one-dimensional or two-dimensional first distribution image (201) of measurement data, and a one-dimensional or two-dimensional second distribution image (202) of differential data of adjacent data elements of the measurement data; and a display controller (40b) configured to instruct the distribution image calculator to calculate at least one of the first distribution image or the second distribution image, and to display the calculated distribution image on a predetermined display.

Abstract: A scanning probe microscope includes: a cantilever; a cantilever supporting portion; a movement mechanism that moves a position of the cantilever; a light source that emits detection light; a detector that receives the detection light reflected on a reflecting surface of the cantilever; an objective lens; and a controller that controls the movement mechanism to perform a process including: detecting a spot position of a spot light of the detection light; detecting a position of the cantilever from an image captured by the imaging device; and controlling the movement mechanism based on the spot position, the position of the cantilever, an incident angle of the detection light, and the attachment angle such that the detection light is reflected on the reflecting surface when the cantilever is attached to the cantilever supporting portion.

Abstract: In the system, when the service providing apparatus is used through the multi-functional peripheral, user authentication is performed and user information is provided to the service providing apparatus, and the authenticating apparatus holds authentication information and user information associating each information with identification information of a user, performs user authentication based on the input of the authentication information of the user for the multi-functional peripheral, transmits the identification information of the user to the multi-functional peripheral by authentication, and is allowed access to the service providing apparatus through the multi-functional peripheral by receiving the identification information, and the service providing apparatus, by receiving a service request from the multi-functional peripheral and the identification information, transmits the identification information to the authenticating apparatus, and thereby obtains user information transmitted from the authentic

Abstract: In the system, when the service providing apparatus is used through the multi-functional peripheral, user authentication is performed and user information is provided to the service providing apparatus, and the authenticating apparatus holds authentication information and user information associating each information with identification information of a user, performs user authentication based on the input of the authentication information of the user for the multi-functional peripheral, transmits the identification information of the user to the multi-functional peripheral by authentication, and is allowed access to the service providing apparatus through the multi-functional peripheral by receiving the identification information, and the service providing apparatus, by receiving a service request from the multi-functional peripheral and the identification information, transmits the identification information to the authenticating apparatus, and thereby obtains user information transmitted from the authentic

Abstract: In the context of an electronic appliance such as an image processing apparatus incorporating a restricted scanner function in addition to standard copier and printer functions, when releasing the restriction on the restricted scanner function, a function restriction release program capable of releasing the restriction on the restricted scanner function might be made to run on a host PC, the restriction on the restricted scanner function at the electronic appliance being automatically released at a time when this host PC is connected to the electronic appliance.

Abstract: Chlorinated ethylene-decomposition bacteria is detected by performing PCR using nucleic acid comprising 18˜25 nucleotides that preferentially hybridizes to the 16S rRNA or rDNA of chlorinated ethylene-decomposing bacteria and has any of base sequences of SEQ ID No. 1˜15, a base sequence that has at least 90% homology with any of these base sequences, or a base sequence complementary to any of these base sequences as the primer and the nucleic acid in a sample as the template. The DNA fragment that has been synthesized is detected. Chlorinated ethylene or ethane is decomposed by introducing the chlorinated ethylene-decomposing bacteria detected by this method to contaminated soil or underground water.

Abstract: When power is turned on, control unit requests a user to enter a security code on the basis of information of SIM card inserted into a card I/F. If the security code entered by the user is an authorized code, the control unit permits the user to use the apparatus such that the apparatus can be utilized. In addition, the control unit urges a display unit to display a security code entered through operation unit, as hidden letters, and to display a control command such that the control command can be visually recognized.

Abstract: Chlorinated ethylene-decomposition bacteria is detected by performing PCR using nucleic acid comprising 18˜25 nucleotides that preferentially hybridizes to the 16S rRNA or rDNA of chlorinated ethylene-decomposing bacteria and has any of base sequences of SEQ ID No. 1˜15, a base sequence that has at least 90% homology with any of these base sequences, or a base sequence complementary to any of these base sequences as the primer and the nucleic acid in a sample as the template. The DNA fragment that has been synthesized is detected. Chlorinated ethylene or ethane is decomposed by introducing the chlorinated ethylene-decomposing bacteria detected by this method to contaminated soil or underground water.

Abstract: When power is turned on, control unit requests a user to enter a security code on the basis of information of SIM card inserted into a card I/F. If the security code entered by the user is an authorized code, the control unit permits the user to use the apparatus such that the apparatus can be utilized. In addition, the control unit urges a display unit to display a security code entered through operation unit, as hidden letters, and to display a control command such that the control command can be visually recognized.

Abstract: A nucleic acid composed of 17–30 nucleotides, which hybridizes with the DNA of dechlorination bacteria preferentially at the chlorinated ethylene-decomposing gene, or a nucleic acid composed of 10–50 nucleotides, which hybridizes with the DNA of dechlorination bacteria preferentially in a region containing the base sequence(s) characteristic to high performance dechlorination bacteria present upstream from the chlorinated ethylene-decomposing gene tceA, to be used for detecting selectively dechlorination bacteria, in particular high performance dechlorination bacteria, by performing a PCR using the nucleic acid mentioned above as the primer and the nucleic acid(s) in the sample bacteria as the template and detecting the thereby synthesized DNA fragments, in order to use the thus identified dechlorination bacteria for an efficient treatment of earth or underground waters polluted by chlorinated ethylene and/or chlorinated ethane.

Abstract: Provided is/are user settings database(s) storing name(s) and application information indicating application(s) within which setting of data processing condition(s) took place, these being attached to combination(s) of data processing condition setting(s) enterable or designatable at settings screen(s) appearing by way of user interface(s) and permitting setting of data processing condition(s), user interface(s) acquiring application information indicating application(s) within which opening of settings screen(s) took place and searching user settings database(s) based on acquired application information and selecting and displaying in list form name(s) saved in association with such application information; upon selection of arbitrary name(s) from among name(s) displayed in list form, content of data processing condition setting(s) at settings screen(s) is altered in accordance with combination(s) of data processing condition setting(s) associated with such name(s)

Abstract: Chlorinated ethylene-decomposition bacteria is detected by performing PCR using nucleic acid comprising 18˜25 nucleotides that preferentially hybridizes to the 16S rRNA or rDNA of chlorinated ethylene-decomposing bacteria and has any of base sequences of SEQ ID No. 1˜15, a base sequence that has at least 90% homology with any of these base sequences, or a base sequence complementary to any of these base sequences as the primer and the nucleic acid in a sample as the template. The DNA fragment that has been synthesized is detected. Chlorinated ethylene or ethane is decomposed by introducing the chlorinated ethylene-decomposing bacteria detected by this method to contaminated soil or underground water.

Abstract: In the context of an electronic appliance such as an image processing apparatus incorporating a restricted scanner function in addition to standard copier and printer functions, when releasing the restriction on the restricted scanner function, a function restriction release program capable of releasing the restriction on the restricted scanner function might be made to run on a host PC, the restriction on the restricted scanner function at the electronic appliance being automatically released at a time when this host PC is connected to the electronic appliance.

Abstract: A nucleic acid composed of 17-30 nucleotides, which hybridizes with the DNA of dechlorination bacteria preferentially at the chlorinated ethylene-decomposing gene, or a nucleic acid composed of 10-50 nucleotides, which hybridizes with the DNA of dechlorination bacteria preferentially in a region containing the base sequence(s) characteristic to high performance dechlorination bacteria present upstream from the chlorinated ethylene-decomposing gene tceA, to be used for detecting selectively dechlorination bacteria, in particular high performance dechlorination bacteria, by performing a PCR using the nucleic acid mentioned above as the primer and the nucleic acid(s) in the sample bacteria as the template and detecting the thereby synthesized DNA fragments, in order to use the thus identified dechlorination bacteria for an efficient treatment of earths or underground waters polluted by chlorinated ethylene and/or chlorinated ethane.

Abstract: Chlorinated ethylene-decomposition bacteria is detected by performing PCR using nucleic acid comprising 18˜25 nucleotides that preferentially hybridizes to the 16S rRNA or rDNA of chlorinated ethylene-decomposing bacteria and has any of base sequences of SEQ ID No. 1˜15, a base sequence that has at least 90% homology with any of these base sequences, or a base sequence complementary to any of these base sequences as the primer and the nucleic acid in a sample as the template. The DNA fragment that has been synthesized is detected. Chlorinated ethylene or ethane is decomposed by introducing the chlorinated ethylene-decomposing bacteria detected by this method to contaminated soil or underground water.

Abstract: The present invention relates to a catalyst comprising at least a metal salt of heteropoly-acid, which is composed of a sort of heteropoly-acid and one or more metals selected from a group of the first transition metals of the periodic table. The catalyst of the present invention exhibits high activity and selectivity in the catalytic reduction of nitrogen oxides with ammonia at a temperature of from 250.degree. to 550.degree. C. and offers high resistivity to the poisonous effect of sulfur oxides. It does not entail a wasteful use of the reducing agent, because the catalyst of the present invention does not accelerate the reaction of the reducing agent such as ammonia with oxygen coexisting in the waste gas to be treated, which results in the elimination of the undesired excessive consumption of the reducing agent.