mhurhangee/ep-ind-claims huggingface dataset:
A printing apparatus configured to perform printing on a recording medium comprising: a head unit including a plurality of nozzles that discharge liquids having different colors from each other as droplets onto the recording medium; and an abnormal discharge detecting unit configured to detect an abnormal discharge of the droplets at the respective nozzles, characterized in that: the head unit is capable of taking a mode of performing the printing in the case where the abnormal discharge is detected by the abnormal discharge detecting unit, the mode using only remaining nozzles other than both the nozzle that has been detected to have the abnormal discharge and further nozzles that discharge droplets having the same color as droplets discharged by the nozzle that has been detected to have the abnormal discharge. a head unit including a plurality of nozzles that discharge liquids having different colors from each other as droplets onto the recording medium; and an abnormal discharge detecting unit configured to detect an abnormal discharge of the droplets at the respective nozzles, characterized in that: the head unit is capable of taking a mode of performing the printing in the case where the abnormal discharge is detected by the abnormal discharge detecting unit, the mode using only remaining nozzles other than both the nozzle that has been detected to have the abnormal discharge and further nozzles that discharge droplets having the same color as droplets discharged by the nozzle that has been detected to have the abnormal discharge.
An accessory system for a gas turbine engine comprising: an accessory gearbox which defines an accessory gearbox axis: characterised by a first gear set having a first drive gear and a first spur gear mounted to a first shaft along a first accessory axis (b) transverse to said accessory gearbox axis; a second gear set having a second drive gear and a second spur gear mounted to a second shaft along a second accessory axis (b) transverse to said accessory gearbox axis, said second spur gear meshed with said first spur gear; a third gear set having a third drive gear and a third spur gear mounted to a third shaft along a third accessory axis (c) transverse to said accessory gearbox axis; a fourth gear set having a fourth spur gear mounted to a fourth shaft along a fourth accessory axis (c) transverse to said accessory gearbox axis, said fourth spur gear meshed with said third spur gear; and a crossover gear set (92") having a crossover drive gear mounted to a crossover shaft along said accessory gearbox axis, said crossover drive gear meshed with said first drive gear and said third drive gear. an accessory gearbox which defines an accessory gearbox axis: characterised by a first gear set having a first drive gear and a first spur gear mounted to a first shaft along a first accessory axis (b) transverse to said accessory gearbox axis; a second gear set having a second drive gear and a second spur gear mounted to a second shaft along a second accessory axis (b) transverse to said accessory gearbox axis, said second spur gear meshed with said first spur gear; a third gear set having a third drive gear and a third spur gear mounted to a third shaft along a third accessory axis (c) transverse to said accessory gearbox axis; a fourth gear set having a fourth spur gear mounted to a fourth shaft along a fourth accessory axis (c) transverse to said accessory gearbox axis, said fourth spur gear meshed with said third spur gear; and a crossover gear set (92") having a crossover drive gear mounted to a crossover shaft along said accessory gearbox axis, said crossover drive gear meshed with said first drive gear and said third drive gear.
A machine tool comprising: a plurality of modules (M1, M2, M3, M4) each including a workpiece holder that holds a workpiece and an operation part holder that holds an operation part for performing a predetermined operation to the workpiece held by the workpiece holder, the workpiece holder and the operation part holder being integrally provided; and a bed on which each of the modules (M1, M2, M3, M4) is installed, wherein the modules include two modules (M2, M4) arranged in parallel and opposite fixed modules (M1, M3) disposed to face the two modules, the machine tool being able to process a workpiece while being transferred among predetermined modules, the modules (M2, M4) arranged in parallel are provided as movable modules to be movable in an arrangement direction, a recess is provided next to the opposite module (M1, M3), the recess being formed by cutting out the bed with the bed having an approximate L-shape in a planar view, with one fixed module being arranged along the outer circumference edge of the bed on the recess side to abut on the recess and the other fixed module being arranged along the outer circumference edge of the bed on the opposite side of the recess across the fixed module, the movable modules (M2, M4) are movable to be aligned with the opposite modules, respectively, and at least one of the movable modules (M2, M4) is provided to be movable in an opposite position of the recess. a plurality of modules (M1, M2, M3, M4) each including a workpiece holder that holds a workpiece and an operation part holder that holds an operation part for performing a predetermined operation to the workpiece held by the workpiece holder, the workpiece holder and the operation part holder being integrally provided; and a bed on which each of the modules (M1, M2, M3, M4) is installed, wherein the modules include two modules (M2, M4) arranged in parallel and opposite fixed modules (M1, M3) disposed to face the two modules, the machine tool being able to process a workpiece while being transferred among predetermined modules, the modules (M2, M4) arranged in parallel are provided as movable modules to be movable in an arrangement direction, a recess is provided next to the opposite module (M1, M3), the recess being formed by cutting out the bed with the bed having an approximate L-shape in a planar view, with one fixed module being arranged along the outer circumference edge of the bed on the recess side to abut on the recess and the other fixed module being arranged along the outer circumference edge of the bed on the opposite side of the recess across the fixed module, the movable modules (M2, M4) are movable to be aligned with the opposite modules, respectively, and at least one of the movable modules (M2, M4) is provided to be movable in an opposite position of the recess.
Method of dosing a contact lens forming material into a contact lens mold (1; 21), which comprises dosing a metered amount of a contact lens forming material including a volatile solvent into a mold cavity enclosed by a male mold half with a second molding surface and a female mold half with a first molding surface of the contact lens mold (1; 21), the mold cavity in the closed state of the contact lens mold corresponding to the shape of the contact lens to be manufactured, wherein contact lens forming material is subsequently polymerized and/or cross-linked to form a contact lens, and wherein dosing of the contact lens forming material into the mold cavity is accomplished while the male and female mold halves (2, 3) are associated with each other substantially gas-tight, wherein the mold cavity is connected with a dosing channel comprising an inner section connected with the mold cavity and an outer section which extends radially through a guide sleeve which holds the male and female mold halves (2, 3), which dosing channel is accessible from the outside of the contact lens mold (1; 21) and wherein dosing of the contact lens forming material is accomplished through this dosing channel, wherein the dosing is accomplished with a dosing needle which, for the dosing process, is attached to and sealingly received by the dosing channel wherein during the dosing of the contact lens forming material air contained in the mold cavity is expelled through at least one venting opening which is provided in the guide sleeve and which venting opening is connected with the mold cavity by an annular channel which is from about 5μm to about 15μm wide from a first annular shoulder enclosing the first molding surface of the female mold half to a second annular shoulder enclosing the second molding surface on the male mold half.
An article of footwear comprising, in combination: an upper; and a sole assembly secured to the upper and including a support assembly comprising: an upper member (32, 132, 162); a lower member (34, 134, 164) spaced from the upper member; a plurality of layers (36, 42, 47, 52, 56, 60, 136, 142, 148, 166, 172,176), each layer having a smooth arcuate wave profile, a plurality of wave crests (38, 44, 48), and a plurality of wave troughs (40, 46, 50); wherein a top of each wave crest in each layer positioned beneath another layer is in contact with a bottom of one of the wave troughs, and a bottom of each wave trough in each layer positioned above another layer is in contact with a top of one of the wave crests; a frequency of at least one layer is one of non-constant along its length and different than a frequency of another layer. an upper; and a sole assembly secured to the upper and including a support assembly comprising: an upper member (32, 132, 162); a lower member (34, 134, 164) spaced from the upper member; an upper member (32, 132, 162); a lower member (34, 134, 164) spaced from the upper member; a plurality of layers (36, 42, 47, 52, 56, 60, 136, 142, 148, 166, 172,176), each layer having a smooth arcuate wave profile, a plurality of wave crests (38, 44, 48), and a plurality of wave troughs (40, 46, 50); wherein a top of each wave crest in each layer positioned beneath another layer is in contact with a bottom of one of the wave troughs, and a bottom of each wave trough in each layer positioned above another layer is in contact with a top of one of the wave crests; a frequency of at least one layer is one of non-constant along its length and different than a frequency of another layer.
Device for holding a model of an abutment, comprising: a first portion (12, 3, 4, 5, 6, 15, 16, 17) in which the model of the abutment can be modeled on, a second portion (2, 7, 8) which allows a definite position identification of the holding device, and a holding member with which the holding device can be held in a holder, wherein the first portion corresponds to an inner shape of the abutment or wherein the first portion is formed for receiving a model piece and wherein the model piece (3, 15) corresponds to the inner shape of the abutment and can be set in or on the first portion, characterized in that the second portion comprises one, two, three or more shape markings (8, 20, 21), wherein the shape marking (8, 20, 21) comprises an elevation, and the holding member is configured such that a holding of the holding device is possible in a definite position in the holder. a first portion (12, 3, 4, 5, 6, 15, 16, 17) in which the model of the abutment can be modeled on, a second portion (2, 7, 8) which allows a definite position identification of the holding device, and a holding member with which the holding device can be held in a holder, wherein the first portion corresponds to an inner shape of the abutment or wherein the first portion is formed for receiving a model piece and wherein the model piece (3, 15) corresponds to the inner shape of the abutment and can be set in or on the first portion, characterized in that the second portion comprises one, two, three or more shape markings (8, 20, 21), wherein the shape marking (8, 20, 21) comprises an elevation, and the holding member is configured such that a holding of the holding device is possible in a definite position in the holder.
Method comprising: determining a performance demand condition of a target site of an access network element, deciding on a re-configuration pattern for the target site based on the performance demand condition, and sending an instruction indicating the re-configuration pattern to the target site; characterized in that the deciding on a re-configuration pattern comprises generating parameters indicating at least one of setting a gradual reduction of a transmit power of dedicated sectors before executing another re-configuration, and adjusting a transmit power of dedicated sectors after executing the re-configuration. determining a performance demand condition of a target site of an access network element, deciding on a re-configuration pattern for the target site based on the performance demand condition, and sending an instruction indicating the re-configuration pattern to the target site; characterized in that the deciding on a re-configuration pattern comprises generating parameters indicating at least one of setting a gradual reduction of a transmit power of dedicated sectors before executing another re-configuration, and adjusting a transmit power of dedicated sectors after executing the re-configuration.
Compound according to formula wherein • X and Y, either are both -CH 2 -, or one of X and Y is -CH 2 - and the other one is -O-; and • R 1 is a methyl group or an ethyl group; and • A is either carbon or oxygen; and • one of Z 1 and Z 2 represents a hydroxyl group and the other one is a hydrogen atom; and • R 2 and R 3, independently of each other, represent a hydrogen atom, a methyl group, an ethyl group, or a CF 3 group or R 2 and R 3, together with the carbon they are bound to form a cyclopropyl group; and • wherein the dotted/ solid lines ( ------) represent either a single carbon-carbon bond or a double carbon-carbon bond, with the proviso that, if two of said bonds are double bonds, these bonds are conjugated; • R 4 represents a methyl group, an ethyl group, a propyl group or a (CH 2) n OR 5 group where n is 1, 2, 3 or 4, and wherein R 5 represents a hydrogen atom, a methyl group, or an ethyl group. • X and Y, either are both -CH 2 -, or one of X and Y is -CH 2 - and the other one is -O-; and • R 1 is a methyl group or an ethyl group; and • A is either carbon or oxygen; and • one of Z 1 and Z 2 represents a hydroxyl group and the other one is a hydrogen atom; and • R 2 and R 3, independently of each other, represent a hydrogen atom, a methyl group, an ethyl group, or a CF 3 group or R 2 and R 3, together with the carbon they are bound to form a cyclopropyl group; and • wherein the dotted/ solid lines ( ------) represent either a single carbon-carbon bond or a double carbon-carbon bond, with the proviso that, if two of said bonds are double bonds, these bonds are conjugated; • R 4 represents a methyl group, an ethyl group, a propyl group or a (CH 2) n OR 5 group where n is 1, 2, 3 or 4, and wherein R 5 represents a hydrogen atom, a methyl group, or an ethyl group.
Method for producing a methane-enriched gas, comprising the steps of a) providing a bioreactor having - at least one device for supplying a gas, - at least one outlet for removing the methane-enriched gas generated in the bioreactor, b) providing a device for determining the proportion of carbon dioxide in the methane-enriched gas removed from the bioreactor, c) specifying a nominal value S for the proportion of carbon dioxide in the methane-enriched gas removed from the bioreactor, d) supplying carbon dioxide-containing gas to the bioreactor, e) supplying hydrogen-containing gas to the bioreactor, f) forming methane-enriched gas in the bioreactor, g) removing the methane-enriched gas formed in the bioreactor from the bioreactor, h) determining an actual value for the proportion of carbon dioxide in the methane-enriched gas removed from the bioreactor, i) comparing the nominal value S specified in step c) with the actual value determined in step h), j) regulating the quantity of carbon dioxide-containing gas supplied in step d) and/or regulating the quantity of hydrogen-containing gas supplied in step e) in a manner such that the actual value determined in step h) corresponds to the nominal value S specified in step c), characterized in that the nominal value S specified in step c) for the proportion of carbon dioxide in the methane-enriched gas removed from the bioreactor satisfies the condition 0 vol% < S ≤ 5 vol%. a) providing a bioreactor having - at least one device for supplying a gas, - at least one outlet for removing the methane-enriched gas generated in the bioreactor, - at least one device for supplying a gas, - at least one outlet for removing the methane-enriched gas generated in the bioreactor, b) providing a device for determining the proportion of carbon dioxide in the methane-enriched gas removed from the bioreactor, c) specifying a nominal value S for the proportion of carbon dioxide in the methane-enriched gas removed from the bioreactor, d) supplying carbon dioxide-containing gas to the bioreactor, e) supplying hydrogen-containing gas to the bioreactor, f) forming methane-enriched gas in the bioreactor, g) removing the methane-enriched gas formed in the bioreactor from the bioreactor, h) determining an actual value for the proportion of carbon dioxide in the methane-enriched gas removed from the bioreactor, i) comparing the nominal value S specified in step c) with the actual value determined in step h), j) regulating the quantity of carbon dioxide-containing gas supplied in step d) and/or regulating the quantity of hydrogen-containing gas supplied in step e) in a manner such that the actual value determined in step h) corresponds to the nominal value S specified in step c),
A method for identifying sensor units at fault in a lighting system performed using three or more sensor units, each respective one of the sensor units comprising a respective sensor configured to generate sensor data over time, the lighting system comprising a processing apparatus external to the sensor units configured to perform the following steps of the method: receiving from each of the sensor units the sensor data; generating spatial correlation parameters from the sensor data for each pair of all of the pairs of neighbouring sensor units; monitoring the spatial correlation parameters to determine a sensor unit at fault by determining a sensor unit common to at least two identified selected pairs of neighbouring sensor units where the spatial correlation parameters from the time sequence of sensor data for selected pairs of neighbouring sensor units is less than a defined threshold value; wherein the respective sensor is an occupancy sensor and receiving from each of the sensor units the sensor data comprise receiving from each of the sensor units at least one of: occupancy detection values; occupancy parameter values; occupancy binary detection values; and occupancy state vector based on applying a hold timer to occupancy binary detection values. receiving from each of the sensor units the sensor data; generating spatial correlation parameters from the sensor data for each pair of all of the pairs of neighbouring sensor units; monitoring the spatial correlation parameters to determine a sensor unit at fault by determining a sensor unit common to at least two identified selected pairs of neighbouring sensor units where the spatial correlation parameters from the time sequence of sensor data for selected pairs of neighbouring sensor units is less than a defined threshold value; wherein the respective sensor is an occupancy sensor and receiving from each of the sensor units the sensor data comprise receiving from each of the sensor units at least one of: occupancy detection values; occupancy parameter values; occupancy binary detection values; and occupancy state vector based on applying a hold timer to occupancy binary detection values. occupancy detection values; occupancy parameter values; occupancy binary detection values; and occupancy state vector based on applying a hold timer to occupancy binary detection values.
A method for validating ticket-based configuration parameters for wireless peer-to-peer communication using a licensed spectrum, comprising: consulting a database of authorized devices and associated parameters identified by a device identifier, wherein the database contains information related to a configuration each device can use to communicate in the licensed spectrum; associating a device with one or more validated information elements, wherein the step of consulting is to determine whether to associate the device with the one or more validated information elements; and transmitting an authorization ticket certified by a trusted party to the device, the ticket including a subset of the one or more validated information elements and the information related to the configuration the device can use to communicate in the licensed spectrum, wherein the device uses the authorization ticket to establish a wireless peer-to-peer communication link with another device, wherein the authorization ticket is exchanged between the device and the another device. consulting a database of authorized devices and associated parameters identified by a device identifier, wherein the database contains information related to a configuration each device can use to communicate in the licensed spectrum; associating a device with one or more validated information elements, wherein the step of consulting is to determine whether to associate the device with the one or more validated information elements; and transmitting an authorization ticket certified by a trusted party to the device, the ticket including a subset of the one or more validated information elements and the information related to the configuration the device can use to communicate in the licensed spectrum, wherein the device uses the authorization ticket to establish a wireless peer-to-peer communication link with another device, wherein the authorization ticket is exchanged between the device and the another device.