mhurhangee/ep-ind-claims huggingface dataset:
A method of a terminal in a wireless communication system, the method comprising: receiving configuration information on a shortened transmission time interval, sTTI; and transmitting uplink control information on a short physical uplink control channel, SPUCCH, wherein, in case that the uplink control information is transmitted on sTTls corresponding to sTTI index n and sTTI index n+1 and uplink sTTls include 2 or 3 symbols, two frequency resources are configured for frequency hopping, and wherein a frequency resource of a last symbol of the sTTI corresponding to sTTI index n and a frequency resource of a first symbol of the sTTI corresponding to sTTI index n+1 are the same. receiving configuration information on a shortened transmission time interval, sTTI; and transmitting uplink control information on a short physical uplink control channel, SPUCCH, wherein, in case that the uplink control information is transmitted on sTTls corresponding to sTTI index n and sTTI index n+1 and uplink sTTls include 2 or 3 symbols, two frequency resources are configured for frequency hopping, and wherein a frequency resource of a last symbol of the sTTI corresponding to sTTI index n and a frequency resource of a first symbol of the sTTI corresponding to sTTI index n+1 are the same.
An aerosol-generating element for use in an aerosol-generating article or system, the aerosol-generating element comprising: a solid continuous matrix structure; and an aerosol-generating formulation dispersed within the solid continuous matrix structure, wherein the aerosol-generating formulation is trapped within the solid continuous matrix structure and releasable from the solid continuous matrix structure upon heating of the aerosol-generating element; wherein the solid continuous matrix structure is an alginate matrix, and wherein the aerosol-generating formulation dispersed within the solid continuous matrix structure consists of: nicotine in an amount accounting for from 1 percent by weight to 4 percent by weight of a total weight of the aerosol-generating element; glycerin in an amount accounting for from 60 percent by weight to 80 percent by weight of a total weight of the aerosol-generating element; a carboxylic acid in an amount accounting for from 0.5 percent by weight to 4 percent by weight of a total weight of the aerosol-generating element; and balance water; wherein the aerosol-generating formulation dispersed within the solid continuous matrix structure accounts for at least about 80 percent by weight of a total weight of the aerosol-generating element; and wherein the aerosol-generating element comprises less than 15 percent by weight of water. a solid continuous matrix structure; and an aerosol-generating formulation dispersed within the solid continuous matrix structure, wherein the aerosol-generating formulation is trapped within the solid continuous matrix structure and releasable from the solid continuous matrix structure upon heating of the aerosol-generating element; nicotine in an amount accounting for from 1 percent by weight to 4 percent by weight of a total weight of the aerosol-generating element; glycerin in an amount accounting for from 60 percent by weight to 80 percent by weight of a total weight of the aerosol-generating element; a carboxylic acid in an amount accounting for from 0.5 percent by weight to 4 percent by weight of a total weight of the aerosol-generating element; and balance water; wherein the aerosol-generating formulation dispersed within the solid continuous matrix structure accounts for at least about 80 percent by weight of a total weight of the aerosol-generating element; and wherein the aerosol-generating element comprises less than 15 percent by weight of water.
An outdoor unit of a refrigeration cycle apparatus, the outdoor unit being connectable to a load device including a first expansion device and an evaporator, the outdoor unit comprising: a refrigerant outlet port and a refrigerant inlet port for connecting to the load device; a first flow path, which is a flow path from the refrigerant inlet port to the refrigerant outlet port, the first flow path being configured to form, together with the load device, a circulation flow path through which refrigerant circulates; a compressor, a condenser, and a second expansion device disposed on the first flow path; a second flow path configured to branch from a portion of the first flow path between the condenser and the second expansion device, and to return, to the compressor, the refrigerant that has passed through the condenser; and a third expansion device and a receiver disposed on the second flow path in order from a branch point where the second flow path is branched from the first flow path, characterized by further comprising a third flow path configured to connect a portion of the first flow path between the second expansion device and the refrigerant outlet port, to a refrigerant inlet of the receiver; and an on-off valve disposed on the third flow path. a refrigerant outlet port and a refrigerant inlet port for connecting to the load device; a first flow path, which is a flow path from the refrigerant inlet port to the refrigerant outlet port, the first flow path being configured to form, together with the load device, a circulation flow path through which refrigerant circulates; a compressor, a condenser, and a second expansion device disposed on the first flow path; a second flow path configured to branch from a portion of the first flow path between the condenser and the second expansion device, and to return, to the compressor, the refrigerant that has passed through the condenser; and a third expansion device and a receiver disposed on the second flow path in order from a branch point where the second flow path is branched from the first flow path, characterized by further comprising a third flow path configured to connect a portion of the first flow path between the second expansion device and the refrigerant outlet port, to a refrigerant inlet of the receiver; and an on-off valve disposed on the third flow path.
A delaminatable container, comprising a container body including a storage portion to store contents and a mouth to discharge the contents from the storage portion, the container body having an outer shell and an inner bag, the inner bag being configured to delaminate from the outer shell and to shrunk with a decrease of the contents, wherein an intermediate space between the outer shell and the inner bag is provided, the outer shell including a fresh air inlet in the storage portion, the fresh air inlet communicating the intermediate space with an external space of the container body, the container further comprises a valve member regulating entrance and exit of air between the external space of the container body and the intermediate space between the outer shell and the inner bag, the valve member including an axis inserted into the fresh air inlet, a lid provided at the axis on a side of the intermediate space and having a cross-sectional area greater than that of the axis, and a locking portion provided at the axis on a side of the external space and preventing entrance of the valve member to the intermediate space, characterized in that the lid has an end having a tapered shape, so that the valve member can be mounted by pressing the lid from outside the container body into the intermediate space.
Device for automatic adjustment of an amplifying or attenuating factor (G; ATT) of a plurality of amplifying members connected in cascade or of a plurality of amplifying and attenuating members (1; 2; 3) connected in cascade with in each case for each amplifying or attenuating member a detector (8; 9; 10) for measuring a signal level of a signal present at the input of the respective amplifying or attenuating member (1; 2; 3) and in each case a following control unit (14; 14'; 14") for determining the amplifying or attenuating factor (G; ATT) associated with the respective amplifying and/or attenuating member (1; 2; 3) in each case, wherein each control unit (14; 14'; 14") is a forward control unit for determining the amplifying or attenuating factor (G; ATT) associated with the respective amplifying and/or attenuating member (1; 2; 3) depending solely on the measured signal level of the signal present at the input of the respective amplifying and/or attenuating member (1; 2; 3), characterised in that the control unit associated with an amplifying member contains a series circuit of a multiplier and an adder, wherein the control unit is configured so that a weighting factor which is required for weighting the signal at the output of the detector in the multiplier and corresponds to the gradient of the transmission characteristic associated with the control unit, and an offset value which is required for adding the weighted signal in the adder and corresponds to the ordinate axis value of the transmission characteristic associated with the control unit are each stored in a memory cell of a memory which can be addressed by means of the signal level of the signal present at the output of the detector.
Method implemented by computing means, for optimising the management of one or more units producing at least one fluid by co-production of fluids, comprising: a) a step of collecting data: - of one or more current parameter values defining a current operating point of the production unit, - a future production demand, - and at least one optimisation criterion, b) and a step of calculating one or more parameters defining a new operating point of the unit, at least according to said demand, characterised in that the calculation step b) comprises at least: b1) an estimation of at least one optimum solution for the definition of the new operating point, and b2) a test of validity of said optimum solution, at least on the basis of an analysis of transition of the production unit from the current operating point to the new operating point. a) a step of collecting data: - of one or more current parameter values defining a current operating point of the production unit, - a future production demand, - and at least one optimisation criterion, - of one or more current parameter values defining a current operating point of the production unit, - a future production demand, - and at least one optimisation criterion, b) and a step of calculating one or more parameters defining a new operating point of the unit, at least according to said demand, b1) an estimation of at least one optimum solution for the definition of the new operating point, and b2) a test of validity of said optimum solution, at least on the basis of an analysis of transition of the production unit from the current operating point to the new operating point.
A toner, comprising: a colorant; and a binder resin comprising a polyester, wherein the polyester comprises a crystalline polyester, a non-crystalline non-modified polyester and a non-crystalline urea-modified polyester, wherein a spreadability of the toner under a non-pressurized condition is 1.20 to 2.50, wherein a common logarithm of a storage modulus at 100°C (G') of the toner is 4.0 [log Pa] to 5.0 [log Pa], wherein a ratio of a loss modulus at 100°C (G") of the toner to the storage modulus at 100°C (G') of the toner, which is expressed by G"/G' equal to tan δ, is 1.1 to 2.2, wherein a degree of crystallinity of the toner is 10% or more, and wherein said toner further comprises ethyl acetate, wherein a content of the ethyl acetate is 1 μg/g to 30 μg/g, wherein the spreadability, the crystallinity, log G' and tan δ of the toner, and the content of the ethyl acetate are measured according to the description. a colorant; and a binder resin comprising a polyester, wherein the polyester comprises a crystalline polyester, a non-crystalline non-modified polyester and a non-crystalline urea-modified polyester, wherein a spreadability of the toner under a non-pressurized condition is 1.20 to 2.50, wherein a common logarithm of a storage modulus at 100°C (G') of the toner is 4.0 [log Pa] to 5.0 [log Pa], wherein a ratio of a loss modulus at 100°C (G") of the toner to the storage modulus at 100°C (G') of the toner, which is expressed by G"/G' equal to tan δ, is 1.1 to 2.2, wherein a degree of crystallinity of the toner is 10% or more, and wherein said toner further comprises ethyl acetate, wherein a content of the ethyl acetate is 1 μg/g to 30 μg/g, wherein the spreadability, the crystallinity, log G' and tan δ of the toner, and the content of the ethyl acetate are measured according to the description.
A permanent magnet rotor comprising: a rotor shaft rotatably supported and extending axially at its rotation axis; a rotor core, fixed to the rotor shaft, having a plurality of flat steel plates laminated axially, having at least two sets of flux barriers (31a, 31b) at different radial distances with respect to the shaft and at least two corresponding sets of permanent magnet spaces (14a, 14b) placed between the flux barriers (31a, 31b) formed in a convex curved shape in a direction toward the rotor shaft, and having bridges (42a, 42b) between the flux barriers (31a, 31b) and the permanent magnet spaces (14a, 14b), characterized by the width of the central region of each magnet space (14a, 14b) is thinner in a radial direction than the width of both end regions of the magnet space (14a, 14b); and permanent magnets (41a, 41b) are disposed in the respective central regions of the permanent magnet spaces (14a, 14b), wherein the demagnetization resistance of the permanent magnets (41a, 41b) decreases monotonically from outer side to inner side in the radial direction. a rotor shaft rotatably supported and extending axially at its rotation axis; a rotor core, fixed to the rotor shaft, having a plurality of flat steel plates laminated axially, having at least two sets of flux barriers (31a, 31b) at different radial distances with respect to the shaft and at least two corresponding sets of permanent magnet spaces (14a, 14b) placed between the flux barriers (31a, 31b) formed in a convex curved shape in a direction toward the rotor shaft, and having bridges (42a, 42b) between the flux barriers (31a, 31b) and the permanent magnet spaces (14a, 14b), characterized by the width of the central region of each magnet space (14a, 14b) is thinner in a radial direction than the width of both end regions of the magnet space (14a, 14b); and permanent magnets (41a, 41b) are disposed in the respective central regions of the permanent magnet spaces (14a, 14b), wherein the demagnetization resistance of the permanent magnets (41a, 41b) decreases monotonically from outer side to inner side in the radial direction.
An electromechanical device (20, 20A, 20B, 20C) comprising: - first and second electrodes (220, 230), the first electrode comprising at least a first metal layer and the second electrode comprising at least a second metal layer, - an active layer comprising at least one ferroelectric polymer, the active layer being disposed between the first and the second electrode (220, 230) in electrical contact with said first and second electrodes (220, 230), the electromechanical device (20, 20A, 20B, 20C) being characterized in that the first electrode and the second electrode (220, 230) respectively comprise a first and a second interface layer (225, 235), each comprising poly(3,4-ethylenedioxythiophene), the first and second interface layer (225, 235) being interposed between the active layer and respectively the first and second metal layer (221, 231) separating said active layer of said first and second metal layer (221, 231) so that the active layer is not in contact with the first and second metal layer (221, 231). - first and second electrodes (220, 230), the first electrode comprising at least a first metal layer and the second electrode comprising at least a second metal layer, - an active layer comprising at least one ferroelectric polymer, the active layer being disposed between the first and the second electrode (220, 230) in electrical contact with said first and second electrodes (220, 230), the electromechanical device (20, 20A, 20B, 20C) being characterized in that the first electrode and the second electrode (220, 230) respectively comprise a first and a second interface layer (225, 235), each comprising poly(3,4-ethylenedioxythiophene), the first and second interface layer (225, 235) being interposed between the active layer and respectively the first and second metal layer (221, 231) separating said active layer of said first and second metal layer (221, 231) so that the active layer is not in contact with the first and second metal layer (221, 231).
An at least substantially metallic flat gasket which is clampable between components (10, 14) and which has at least one media passage opening (102, 104, 106) and screw holes for the passage of mounting screws used to clamp the flat gasket, wherein the flat gasket comprises at least one gasket layer (130, 132) at least around the media passage opening, at least one gasket layer with a sealing bead (120', 120") surrounding the media passage opening, and, for limiting the deformation of the sealing bead, at least one gasket layer is provided with a stopper (136; 202b; 214a; 224; 234; 300b), which at least substantially surrounds the media passage opening, and wherein the flat gasket comprises means for evening out the compression of the stopper of the installed flat gasket along the length of the stopper, characterised in that the means for evening out the compression comprise at least one component support element (140; 140'; 140"; 200b; 200b', 210a; 226; 236; 302b) which, in a plan view of the flat gasket, is provided only over a longitudinal portion of the stopper and is configured such that, in the region of this stopper longitudinal portion, the flat gasket is locally thicker than in regions of stopper longitudinal portions immediately adjacent to this stopper longitudinal portion, and wherein, against pressure forces acting upon the clamped flat gasket, the component support element is more resistant to deformations than the sealing bead (120; 120'; 300a) and is provided with such an embossed height profile, that the height of the component support element varies along the length of the stopper.
A method, comprising: queuing a content item for upload from a user device to a content management system; uploading metadata associated with the content item to the content management system prior to uploading the content item; receiving categorization data for the content item from the content management system based on the uploaded metadata; presenting the content item within a user interface comprising a collection of items displayed on the user device prior to uploading the content item to the content management system, wherein the content item is categorized in the collection of content items based on the categorization data, the collection of content items comprising one or more previously uploaded content items stored in an account on the content management system; and providing a set of interactivity features on the user device for interacting with the one or more previously uploaded content items and the content item in the queue for upload, regardless of upload status of the content item. queuing a content item for upload from a user device to a content management system; uploading metadata associated with the content item to the content management system prior to uploading the content item; receiving categorization data for the content item from the content management system based on the uploaded metadata; presenting the content item within a user interface comprising a collection of items displayed on the user device prior to uploading the content item to the content management system, wherein the content item is categorized in the collection of content items based on the categorization data, the collection of content items comprising one or more previously uploaded content items stored in an account on the content management system; and providing a set of interactivity features on the user device for interacting with the one or more previously uploaded content items and the content item in the queue for upload, regardless of upload status of the content item.
A load balancer for balancing distribution of wireless clients among wireless access points comprising: a tracking implementation for tracking at least one telemetry parameter characteristic of each wireless client's wireless link with each respective wireless access point; a goal implementation for comparing the at least one telemetry parameter against at least one predetermined goal to obtain a fitness measure; a control implementation including at least one control mechanism for varying the operation of at least one of the respective wireless access points and wireless clients in response to the fitness measure, so as to balance the distribution of wireless clients among the respective wireless access points, wherein the control implementation is part of a self-adaptive subsystem of the load balancer and further comprises an implementation for applying the fitness measure to the at least one control mechanism to build a database of control vectors, and for sorting them by the value of their corresponding fitness. a tracking implementation for tracking at least one telemetry parameter characteristic of each wireless client's wireless link with each respective wireless access point; a goal implementation for comparing the at least one telemetry parameter against at least one predetermined goal to obtain a fitness measure; a control implementation including at least one control mechanism for varying the operation of at least one of the respective wireless access points and wireless clients in response to the fitness measure, so as to balance the distribution of wireless clients among the respective wireless access points, wherein the control implementation is part of a self-adaptive subsystem of the load balancer and further comprises an implementation for applying the fitness measure to the at least one control mechanism to build a database of control vectors, and for sorting them by the value of their corresponding fitness.
A method for self-diagnosis of a continuous analyte sensor, the method comprising: receiving a stream of sensor data from a continuous analyte sensor, the stream comprising at least one sensor data point; converting the sensor data into calibrated data using a conversion function; performing a self-diagnostic test on the sensor data or the calibrated data; and setting in response to the result of the self-diagnostic test a mode of operation of the continuous analyte sensor, the setting a mode of operation comprising setting a mode selected from the group consisting of a start-up mode, the start-up mode comprising determining a new conversion function, a normal mode, the normal mode comprising continuously converting and displaying sensor data, and a suspended mode, the suspended mode comprising suspending the continuous conversion or the display of sensor data. receiving a stream of sensor data from a continuous analyte sensor, the stream comprising at least one sensor data point; converting the sensor data into calibrated data using a conversion function; performing a self-diagnostic test on the sensor data or the calibrated data; and setting in response to the result of the self-diagnostic test a mode of operation of the continuous analyte sensor, the setting a mode of operation comprising setting a mode selected from the group consisting of a start-up mode, the start-up mode comprising determining a new conversion function, a normal mode, the normal mode comprising continuously converting and displaying sensor data, and a suspended mode, the suspended mode comprising suspending the continuous conversion or the display of sensor data.