mhurhangee/ep-ind-claims huggingface dataset:
An image forming apparatus comprising: - setting means for making a setting for rejecting reception of a command including authentication information which uses plain text; - reception means for receiving a command including authentication information via a network; - determination means for determining whether or not the received command uses plain text authentication; - control means for executing, in a case where the authentication information included in the received command uses plain text (S701, YES), the setting has been made by the setting means (S702, NO), and the command is received via an encrypted communication path (S722, NO), the received command, depending on authentication performed based on the authentication information, and not executing the received command, in a case where the authentication information included in the received command uses plain text (S701, YES), the setting has been made by the setting means (S702, NO), and the command is received via a communication path which is not encrypted (S722, YES); - wherein the control means is configured to send an error notification indicative of access rejection, in a case where the authentication information included in the received command uses plain text (S701, YES), the setting has been made by the setting means (S702, NO), and the command is received from outside the image forming apparatus via a communication path which is not encrypted (S722, YES; S723, YES). - setting means for making a setting for rejecting reception of a command including authentication information which uses plain text; - reception means for receiving a command including authentication information via a network; - determination means for determining whether or not the received command uses plain text authentication; - control means for executing, in a case where the authentication information included in the received command uses plain text (S701, YES), the setting has been made by the setting means (S702, NO), and the command is received via an encrypted communication path (S722, NO), the received command, depending on authentication performed based on the authentication information, and not executing the received command, in a case where the authentication information included in the received command uses plain text (S701, YES), the setting has been made by the setting means (S702, NO), and the command is received via a communication path which is not encrypted (S722, YES); - wherein the control means is configured to send an error notification indicative of access rejection, in a case where the authentication information included in the received command uses plain text (S701, YES), the setting has been made by the setting means (S702, NO), and the command is received from outside the image forming apparatus via a communication path which is not encrypted (S722, YES; S723, YES).
A system for drying and cooling greenhouse air by means of water cooler than the dew point temperature of the greenhouse air, the system comprising water distribution devices arranged to spray said water cooler than the dew point temperature of the greenhouse air directly into the air space of the greenhouse without using separate condenser chambers, structures and fans for conveying the greenhouse air into the condenser, characterised in that said water distribution devices are dimensioned to spray at least 50 litres of water per square meter of greenhouse into the greenhouse air space in an hour, the system further comprising water collection devices arranged to collect the water sprayed into the air space of the greenhouse and to return it at least partly to the devices of the system.
A structure for protecting scale graduations in which a graduation unit formed on a scale base is protected by a scale cover arranged on a top surface side thereof, wherein the scale cover is supported on the scale base by a height regulating unit provided along a periphery of the graduation unit, and a space between the scale base and the scale cover along an outside of the height regulating unit is filled by an adhesive agent mixed with a powder material.
Method for providing a name service within an industrial automation system, in which - the industrial automation system comprises a plurality of cells each having a plurality of automation devices and a cell switch that connects the automation devices within its cell to one another at least indirectly, - the cell switches are connected to an assigned router that broadcasts IPv6 prefixes into subordinate subnetworks by way of router announcement messages, - the cell switches and/or the automation devices determine their respective IPv6 address using the IPv6 prefixes contained in router announcement messages (110, 220), - router announcement messages, received by the cell switches, of the assigned router are forwarded to a broadcast unit of the respective cell switch and supplemented, by the broadcast unit, with information about a name service server assigned to the respective cell, - the cell switches broadcast the router announcement messages, supplemented by their broadcast units, to the automation devices in their respective cell, - information, contained in received router announcement messages, about the name service server assigned to the respective cell is forwarded to a name service functional unit of the respective automation device by the automation devices and is used by the name service functional unit for its configuration, - name resolution queries of the automation devices are transmitted, by way of the respective name service functional unit, according to its configuration, to the assigned name service server. - the industrial automation system comprises a plurality of cells each having a plurality of automation devices and a cell switch that connects the automation devices within its cell to one another at least indirectly, - the cell switches are connected to an assigned router that broadcasts IPv6 prefixes into subordinate subnetworks by way of router announcement messages, - the cell switches and/or the automation devices determine their respective IPv6 address using the IPv6 prefixes contained in router announcement messages (110, 220), - router announcement messages, received by the cell switches, of the assigned router are forwarded to a broadcast unit of the respective cell switch and supplemented, by the broadcast unit, with information about a name service server assigned to the respective cell, - the cell switches broadcast the router announcement messages, supplemented by their broadcast units, to the automation devices in their respective cell, - information, contained in received router announcement messages, about the name service server assigned to the respective cell is forwarded to a name service functional unit of the respective automation device by the automation devices and is used by the name service functional unit for its configuration, - name resolution queries of the automation devices are transmitted, by way of the respective name service functional unit, according to its configuration, to the assigned name service server.
An ablutionary fitting comprising: a flow dispersion device, the flow dispersion device comprising: a coupling mechanism arranged to removably couple the flow dispersion device to the ablutionary fitting such that, when coupled, the flow dispersion device is arranged to disperse a water stream into a water spray; and a data storage medium arranged to store computer readable information defining one or more spray characteristics, wherein the data storage medium is readable by the ablutionary fitting, the spray characteristics defining one or more desired properties of the water spray provided by the ablutionary fitting to provide a desired user experience, an outlet arranged to provide the water stream; a reader arranged to read the computer readable information stored by the data storage medium; and a controller in communication with the reader, the controller arranged to control one or more components which are operable to change the characteristics of the water spray formed by the dispersion device according to the one or more stored spray characteristics. a flow dispersion device, the flow dispersion device comprising: a coupling mechanism arranged to removably couple the flow dispersion device to the ablutionary fitting such that, when coupled, the flow dispersion device is arranged to disperse a water stream into a water spray; and a data storage medium arranged to store computer readable information defining one or more spray characteristics, wherein the data storage medium is readable by the ablutionary fitting, the spray characteristics defining one or more desired properties of the water spray provided by the ablutionary fitting to provide a desired user experience, a coupling mechanism arranged to removably couple the flow dispersion device to the ablutionary fitting such that, when coupled, the flow dispersion device is arranged to disperse a water stream into a water spray; and a data storage medium arranged to store computer readable information defining one or more spray characteristics, wherein the data storage medium is readable by the ablutionary fitting, the spray characteristics defining one or more desired properties of the water spray provided by the ablutionary fitting to provide a desired user experience, an outlet arranged to provide the water stream; a reader arranged to read the computer readable information stored by the data storage medium; and a controller in communication with the reader, the controller arranged to control one or more components which are operable to change the characteristics of the water spray formed by the dispersion device according to the one or more stored spray characteristics.
Method of automatically calibrating at least one first camera and at least one second camera that have fields of view covering a location while overlapping partially in an overlap zone, and that are connected to a processor unit executing a program arranged to detect semantically-defined characteristic points in an element, characterized in that the location covered by the cameras is a passage forming a sally port in which the cameras are positioned, the processor unit being configured to execute a program for biometric face recognition, the method comprising the steps of: - capturing an image simultaneously with the two cameras; - detecting in each image, in the overlap zone, at least one semantically-defined characteristic point; and - putting two semantically-defined characteristic points of the same type, each detected in one of the images, into correspondence in order to deduce therefrom at least one relationship between the fields of view of the two cameras, through association of a given semantically defined point detected in each of the images with the same point in space, the processor unit being arranged to, once this calibration has been carried out, ensure that a face detected in an image provided by each camera is indeed to be found in the passage and not outside it, and to estimate the size of the face in order to verify that it matches theoretical anthropometric data. characterized in that the location covered by the cameras is a passage forming a sally port in which the cameras are positioned, the processor unit being configured to execute a program for biometric face recognition, the method comprising the steps of: - capturing an image simultaneously with the two cameras; - detecting in each image, in the overlap zone, at least one semantically-defined characteristic point; and - putting two semantically-defined characteristic points of the same type, each detected in one of the images, into correspondence in order to deduce therefrom at least one relationship between the fields of view of the two cameras, through association of a given semantically defined point detected in each of the images with the same point in space, - capturing an image simultaneously with the two cameras; - detecting in each image, in the overlap zone, at least one semantically-defined characteristic point; and - putting two semantically-defined characteristic points of the same type, each detected in one of the images, into correspondence in order to deduce therefrom at least one relationship between the fields of view of the two cameras, through association of a given semantically defined point detected in each of the images with the same point in space, the processor unit being arranged to, once this calibration has been carried out, ensure that a face detected in an image provided by each camera is indeed to be found in the passage and not outside it, and to estimate the size of the face in order to verify that it matches theoretical anthropometric data.
A wipe which comprises fibres of (a) polylactic acid, modified PLA or cellulosic material and (b) polyvinyl acetate; together with a binder which is soluble in water at standard ambient temperature and pressure (SATP) wherein the binder is carboxymethylcellulose; and wherein the wipe comprises about 5% PVA fibres by weight and about 4% CMC by weight. (a) polylactic acid, modified PLA or cellulosic material and (b) polyvinyl acetate;
A communications module execution control system for controlling the execution of a communications module (102, 104, 106) of a communications terminal by an application, characterized in comprising: judging means for referring to an application attribute information file in which attribute information for said application, including information relating to whether or not said application is to execute said communications module (102, 104, 106), is defined, and judging whether or not said application is to execute said communications module (102, 104, 106); and indicator means for indicating the judgement result from said judging means; and control means for controlling the execution of said communications module (102, 104, 106) by means of said application, in accordance with the judgement result from said judging means. judging means for referring to an application attribute information file in which attribute information for said application, including information relating to whether or not said application is to execute said communications module (102, 104, 106), is defined, and judging whether or not said application is to execute said communications module (102, 104, 106); and indicator means for indicating the judgement result from said judging means; and control means for controlling the execution of said communications module (102, 104, 106) by means of said application, in accordance with the judgement result from said judging means.
A method for fabricating a multi-chip module, "MCM", comprising: defining first negative features (116-1, 116-2) on a first surface of a first substrate, wherein a given first negative feature is recessed below the first surface and has a first opening, defined by a first edge; disposing a first layer in the first negative features, wherein the first layer includes a hydrophilic material; disposing a second layer in regions of the first surface surrounding the first negative features, wherein the second layer includes a hydrophobic material; placing positive features (124-1, 124-2) on the first layer in the first negative features by immersing the positive features in a de-ionized water solution and guiding the positive features above the first negative features, wherein the positive features protrude above the first surface when placed in the first negative features; defining second negative features (118-1, 118-2) on a second surface of a second substrate, which faces the first surface of the first substrate, wherein a given second negative feature is recessed below the second surface and has a second opening, defined by a second edge; and mechanically coupling the second negative features to the positive features so that the first substrate is mechanically coupled to the second substrate. defining first negative features (116-1, 116-2) on a first surface of a first substrate, wherein a given first negative feature is recessed below the first surface and has a first opening, defined by a first edge; disposing a first layer in the first negative features, wherein the first layer includes a hydrophilic material; disposing a second layer in regions of the first surface surrounding the first negative features, wherein the second layer includes a hydrophobic material; placing positive features (124-1, 124-2) on the first layer in the first negative features by immersing the positive features in a de-ionized water solution and guiding the positive features above the first negative features, wherein the positive features protrude above the first surface when placed in the first negative features; defining second negative features (118-1, 118-2) on a second surface of a second substrate, which faces the first surface of the first substrate, wherein a given second negative feature is recessed below the second surface and has a second opening, defined by a second edge; and mechanically coupling the second negative features to the positive features so that the first substrate is mechanically coupled to the second substrate.
A method for manufacturing a semiconductor device, comprising steps of: providing a substrate on which a shallow trench isolation region and an active region are formed; forming trenches (104, 204) in the shallow trench isolation region and in the active region, respectively, the trenches comprising a first trench located in the shallow trench isolation region and a second trench located in the active region, wherein a depth of the first trench is greater than or equal to a depth of the second trench, and a width of the first trench is greater than or equal to a width of the second trench; forming a word line conductive layer on the substrate, wherein a part of the word line conductive layer is located in each of the trenches (104, 204); forming a first insulating thin film on the word line conductive layer in which an air gap structure is formed in the first insulating thin film by controlling a step coverage of the first insulating thin film; and removing the first insulating thin film on the surface of the substrate to form a first insulating layer, wherein the first insulating layer embeds the air gap structure, characterized in that, the air gap structure is located in the second trench in the active region, and along the extension direction of the trenches (104, 204), the air gap structure is an intermittent structure. providing a substrate on which a shallow trench isolation region and an active region are formed; forming trenches (104, 204) in the shallow trench isolation region and in the active region, respectively, the trenches comprising a first trench located in the shallow trench isolation region and a second trench located in the active region, wherein a depth of the first trench is greater than or equal to a depth of the second trench, and a width of the first trench is greater than or equal to a width of the second trench; forming a word line conductive layer on the substrate, wherein a part of the word line conductive layer is located in each of the trenches (104, 204); forming a first insulating thin film on the word line conductive layer in which an air gap structure is formed in the first insulating thin film by controlling a step coverage of the first insulating thin film; and removing the first insulating thin film on the surface of the substrate to form a first insulating layer, wherein the first insulating layer embeds the air gap structure, characterized in that, the air gap structure is located in the second trench in the active region, and along the extension direction of the trenches (104, 204), the air gap structure is an intermittent structure.
A method for producing an episulfide compound, wherein an epoxy compound having a structure expressed by the following formula or an epoxy compound, which differs from the episulfide compound having a structure expressed by any one of the following formulae to in that the sulfur atom of each three-membered ring is substituted with an oxygen atom, and a thiourea are reacted with each other at 10 to 40°C in the presence of an ammonium salt to produce an episulfide compound having a structure expressed by any one of the following formulae to. where m represents an integer of 0 to 4, and n represents an integer of 0 or 1; where m represents an integer of 0 to 4, and n represents an integer of 0 or 1; where p and q each represent an integer of 0 to 4; where p and q each represent an integer of 0 to 4; where p and q each represent an integer of 0 to 4.
A method of controlling the longitudinal motion of a railborne storage and retrieval machine, wherein the storage and retrieval machine is driven by at least two driving wheels (2, 3), guided on a common rail at a distance from one another in the direction of travel, and wherein for each of the at least two driving wheels (2, 3) there is in each case determined a torque desired value, characterized in that one driving wheel (2, 3) of the at least two driving wheels (2, 3) is identified as a driving wheel (2, 3) running slower at the moment and in that for the driving wheel (2, 3) identified as a driving wheel (2, 3) running slower at the moment there is additionally set a variable torque limit value which upwardly bounds the determinable torque desired value for this driving wheel (2, 3).
A turbine of an organic Ranking cycle ORC, or Kalina cycle or water vapor cycle, comprising a shaft supported by at least two bearings (5, 6), a plurality of arrays of rotor blades and corresponding supporting disks, and a plurality of arrays of stator blades, wherein one of said supporting disks, named main supporting disk, is directly coupled to the shaft in an outer position with respect to the bearings (5, 6), and the remaining supporting disks are constrained to the main supporting disk, and one to the other in succession, but not directly to the shaft, wherein at least some of the remaining supporting disks are constrained to the main supporting disk, by cantileverly extending from the same part of the bearings (5, 6) that support the shaft, so that the arrays of rotor blades and the arrays of stator blades define axial stages of expansion, and the center of gravity of the rotor part of the turbine is more shifted towards the bearings (5, 6) with respect the center of gravity position of the main supporting disk alone, characterized in that the supporting disks, except the main one, are provided with a central hole, i.e. they are rings, so that between each ring and the shaft a gap is defined and extended as necessary to house stator components, such as seals (9,9') and bearings (5, 6) and the respective bearing housing sleeves as well as the central part of the volute. wherein at least some of the remaining supporting disks are constrained to the main supporting disk, by cantileverly extending from the same part of the bearings (5, 6) that support the shaft, so that the arrays of rotor blades and the arrays of stator blades define axial stages of expansion, and the center of gravity of the rotor part of the turbine is more shifted towards the bearings (5, 6) with respect the center of gravity position of the main supporting disk alone, characterized in that the supporting disks, except the main one, are provided with a central hole, i.e. they are rings, so that between each ring and the shaft a gap is defined and extended as necessary to house stator components, such as seals (9,9') and bearings (5, 6) and the respective bearing housing sleeves as well as the central part of the volute.