mhurhangee/ep-ind-claims huggingface dataset:
A method for covering a curved or flat wall of a building, comprising: a) raising, parallel to the wall, a bearing surface comprising a plurality of flexible panels; b) constraining the bearing surface to the wall by fastening elements and d) fastening a wall covering to the bearing surface, characterized in that the orientation of the fastening elements can be adjusted; and c) precisely adjusting the orientation of the bearing surface from the wall, by selectively orientating the single fastening elements to keep the bearing surface flat, curved or wavy in at least one direction. a) raising, parallel to the wall, a bearing surface comprising a plurality of flexible panels; b) constraining the bearing surface to the wall by fastening elements and d) fastening a wall covering to the bearing surface, characterized in that the orientation of the fastening elements can be adjusted; and c) precisely adjusting the orientation of the bearing surface from the wall, by selectively orientating the single fastening elements to keep the bearing surface flat, curved or wavy in at least one direction.
A laundry treating apparatus comprising: a cabinet including a body, a body front surface fixed to the body, forming a front surface, and an inlet provided to pass through the body front surface; a drum including a drum body provided inside the cabinet, configured for storing laundry therein, and a drum inlet provided to pass through the drum body and communicated with the inlet; a driving unit configured for rotating the drum; a door rotatably provided in the cabinet, wherein the door comprises: a frame (51, 53) rotatably fixed to the cabinet, configured for opening or closing the inlet; a front panel fixed to the frame (51, 53) and located on the body front surface; and a through hole provided to pass through the front panel; a controller configured for controlling the driving unit; and a voice recognition unit provided in the door, configured for recognizing a voice generated by a user and for transmitting a control command corresponding to the recognized voice to the controller, wherein the voice recognition unit includes a microphone located between the front panel and the frame (51, 53), configured for converting a sound wave entering the through hole into an electrical signal, wherein the through hole is provided in an area below a horizontal line passing through a center of the front panel. a cabinet including a body, a body front surface fixed to the body, forming a front surface, and an inlet provided to pass through the body front surface; a drum including a drum body provided inside the cabinet, configured for storing laundry therein, and a drum inlet provided to pass through the drum body and communicated with the inlet; a driving unit configured for rotating the drum; a door rotatably provided in the cabinet, wherein the door comprises: a frame (51, 53) rotatably fixed to the cabinet, configured for opening or closing the inlet; a front panel fixed to the frame (51, 53) and located on the body front surface; and a through hole provided to pass through the front panel; a frame (51, 53) rotatably fixed to the cabinet, configured for opening or closing the inlet; a front panel fixed to the frame (51, 53) and located on the body front surface; and a through hole provided to pass through the front panel; a controller configured for controlling the driving unit; and a voice recognition unit provided in the door, configured for recognizing a voice generated by a user and for transmitting a control command corresponding to the recognized voice to the controller, wherein the voice recognition unit includes a microphone located between the front panel and the frame (51, 53), configured for converting a sound wave entering the through hole into an electrical signal, wherein the through hole is provided in an area below a horizontal line passing through a center of the front panel.
Fan comprising an impeller and a housing encasing said impeller, wherein said housing comprises at least one inlet for fluid to said impeller and at least one outlet for fluid from said impeller, wherein said housing further comprises at least one acoustic attenuation element associated with said at least one inlet, said acoustic attenuation element comprising at least one hollow lateral expansion (306; 307) arranged around said at least one inlet, said at least one hollow lateral expansion (306; 307) being open towards said at least one inlet and being closed towards a periphery of said at least one acoustic attenuation element, so as to be configured as an acoustic resonant cavity for noise generated by said impeller, wherein said acoustic attenuation element further comprises at least one separation element (308; 309) within said at least one hollow lateral expansion (306; 307), said at least one separation element (308; 309) being configured for defining at least one second separated volume (310; 311) within said at least one hollow lateral expansion (306; 307), said at least one separation element (308; 309) being configured for dissipating an acoustic field within said at least one hollow lateral expansion (306; 307), characterized in that said at least one separation element (308; 309) is configured for mechanically oscillating under the action of said acoustic field, so as to act as a selective mechanical damper in the frequency domain.
A recording method comprising: attaching a resin solution including a resin, to a recording region of a recording medium; attaching a reaction solution including a flocculating agent which flocculates components of an ink composition, to the recording region to which the resin solution is attached; and attaching an ink composition including at least any one of a pigment and resin fine particles, to the recording region to which the reaction solution is attached, characterized in that: in the recording region, when an attachment amount of a region where the attachment amount of a solid content which is included in the ink composition per unit area is the largest is 100%, in a case of having the region and a region of a range which is from the region up to a region where the attachment amount of the solid content is 20%, at the region of the range, a ratio of the attachment amount (unit: g) of the solid content of the ink composition per unit area, and the attachment amount (unit: mol) of the flocculating agent per unit area, is from 140:1 to 650:1. attaching a resin solution including a resin, to a recording region of a recording medium; attaching a reaction solution including a flocculating agent which flocculates components of an ink composition, to the recording region to which the resin solution is attached; and attaching an ink composition including at least any one of a pigment and resin fine particles, to the recording region to which the reaction solution is attached, characterized in that: in the recording region, when an attachment amount of a region where the attachment amount of a solid content which is included in the ink composition per unit area is the largest is 100%, in a case of having the region and a region of a range which is from the region up to a region where the attachment amount of the solid content is 20%, at the region of the range, a ratio of the attachment amount (unit: g) of the solid content of the ink composition per unit area, and the attachment amount (unit: mol) of the flocculating agent per unit area, is from 140:1 to 650:1. in the recording region, when an attachment amount of a region where the attachment amount of a solid content which is included in the ink composition per unit area is the largest is 100%, in a case of having the region and a region of a range which is from the region up to a region where the attachment amount of the solid content is 20%, at the region of the range, a ratio of the attachment amount (unit: g) of the solid content of the ink composition per unit area, and the attachment amount (unit: mol) of the flocculating agent per unit area, is from 140:1 to 650:1.
A wind turbine control system comprising: a first controller unit implementing a model predictive control routine for calculating a predicted operational trajectory of a predicted operational signal, where a trajectory comprises a time series of at least one variable, and where a trajectory includes a predicted first control value; a second controller unit implementing a non-optimizing controller for calculating a second control value; and an actuator controller unit arranged for determining an actuator control signal by combining the predicted first control value and the second control value, characterized in that the first controller unit further comprises a fault unit arranged to monitor an optimization routine of the MPC routine, and to, if the optimization routine does not provide a valid solution to the optimization during a predetermined time, send out a fault signal, the fault signal comprising an override control value to replace the predicted first control value, the override control value being the last determined valid predicted control value, and in that the fault unit is arranged to monitor the number of samples passing by without a valid solution being obtained, and if the number of samples is larger than a predefined threshold value, the fault signal is a shutdown signal of the wind turbine. a first controller unit implementing a model predictive control routine for calculating a predicted operational trajectory of a predicted operational signal, where a trajectory comprises a time series of at least one variable, and where a trajectory includes a predicted first control value; a second controller unit implementing a non-optimizing controller for calculating a second control value; and an actuator controller unit arranged for determining an actuator control signal by combining the predicted first control value and the second control value, characterized in that the first controller unit further comprises a fault unit arranged to monitor an optimization routine of the MPC routine, and to, if the optimization routine does not provide a valid solution to the optimization during a predetermined time, send out a fault signal, the fault signal comprising an override control value to replace the predicted first control value, the override control value being the last determined valid predicted control value, and in that the fault unit is arranged to monitor the number of samples passing by without a valid solution being obtained, and if the number of samples is larger than a predefined threshold value, the fault signal is a shutdown signal of the wind turbine.
System (1; 101; 201; 301; 401; 501; 601; 701; 801; 901; 1001; 1101; 1201) for dispensing a fluid (L; L1, L2), comprising a container (C; C') suited to contain said fluid (L; L1, L2) and a device (10; 410; 510) suited to dispense said fluid (L; L1, L2), said device (10; 410; 510) comprising: - a collapsible chamber (20; 420) which defines a volume (V; V') suited to receive a quantity of said fluid (L; L1, L2) to be dispensed; - an inlet duct (62; 462) suited to allow the passage of said fluid (L; L1, L2) from the inside of said container (C; C') towards said volume (V; V'); - first valve means (66; 466) suited to control the passage of said fluid (L; L1, L2) into said inlet duct (62; 462); - an outlet duct (64; 464) for said fluid (L; L1, L2) suited to allow the passage of said fluid (L; L1, L2) from said volume (V; V') towards the outside; - second valve means (68; 468) suited to control the passage of said fluid (L; L1, L2) into said outlet duct (64; 464), wherein said collapsible chamber (20; 420) is at least partially defined by a first portion (30; 430) and by a second portion mutually coupled with each other in such a way that together they define said volume (V; V') and define said inlet duct (62; 462) and said outlet duct (64; 464), wherein said first portion (30; 430) comprises an area connected to said container (C; C') and wherein said second portion is constituted by a portion of said container (C; C'), wherein said container (C; C') comprises a first portion (C1; C1'; C2) connected to said first portion (30; 430) of said device (10; 410; 510) and a second portion which defines said second portion of said device (10; 410; 510), wherein said first portion (C1; C1'; C2) of said container and said second portion of said container are mutually coupled to define a volume for said fluid, and characterised in that said area of said first portion (30; 430) connected to said container (C; C') is positioned between said first portion (C1; C1'; C2) of said container and said second portion of said container. - a collapsible chamber (20; 420) which defines a volume (V; V') suited to receive a quantity of said fluid (L; L1, L2) to be dispensed; - an inlet duct (62; 462) suited to allow the passage of said fluid (L; L1, L2) from the inside of said container (C; C') towards said volume (V; V'); - first valve means (66; 466) suited to control the passage of said fluid (L; L1, L2) into said inlet duct (62; 462); - an outlet duct (64; 464) for said fluid (L; L1, L2) suited to allow the passage of said fluid (L; L1, L2) from said volume (V; V') towards the outside; - second valve means (68; 468) suited to control the passage of said fluid (L; L1, L2) into said outlet duct (64; 464),
Stabilizing polymeric polypiperidine compounds of general formula, wherein p is from 3 to 20; n is from 2 to 12; R and R 1, which are the same or different, are selected in the group consisting of hydrogen, linear and branched C 1 -C 12 alkyl groups, alkenyl groups having 3 to 8 carbon atoms and aralkyl groups having 7 to 19 carbon atoms; X and X 1, which are the same or different, are selected in the group consisting of oxygen and groups of formula wherein R 2 is selected in the group consisting of hydrogen, linear and branched C 1 -C 12 alkyl groups, cycloalkyl groups having 5 to 12 carbon atoms and aralkyl groups having 7 to 12 carbon atoms; A represents a -(CH 2) a - group wherein a is from 2 to 12, with the proviso that a is different from n; Z is selected in the group consisting of C 1 -C 18 alkyl groups, groups of formula wherein n, X, X 1, R and R 1 are as above defined, and groups of formula wherein R is as above defined; Y represents a substituent selected in the group consisting of the groups of general formula the groups O -R 4 and S- R 4, wherein R 3 and R 4, which may be the same or different, are selected in the group consisting of hydrogen, linear and branched C 1 -C 18 alkyl groups, cycloalkyl groups having 5 to 12 carbon atoms, aralkyl groups having 7 to 12 carbon atoms, aryl groups having 6 to 12 carbon atoms or may form, together with the nitrogen atom to which they are linked, a heterocycle containing 5 to 7 carbon atoms; or is a morpholine group.
A method, implemented in a mobile device, for determining a position of the mobile device in an indoor environment, the method comprising: receiving a request for the position of the mobile device within the indoor environment from an application running on the mobile device; estimating the position of the mobile device within the indoor environment based on signals received from a plurality of wireless access points responsive to receiving the request for the position of the mobile device; identifying an ambiguity in the position of the mobile device while estimating the position of the mobile device, where two or more position determination algorithms used for estimating the position provide conflicting results; identifying disambiguation information for resolving the ambiguity in the position of the mobile device; requesting the disambiguation information for resolving the ambiguity associated with the position of the mobile device; receiving the disambiguation information for resolving the ambiguity associated with the position of the mobile device, wherein said disambiguation information comprises information about the use of a particular position determination algorithm producing more accurate results for that particular indoor environment from other mobile devices; determining the position of the mobile device in the indoor environment by selecting results from the same positioning algorithm producing more accurate results for other mobile devices using the received disambiguation information. receiving a request for the position of the mobile device within the indoor environment from an application running on the mobile device; estimating the position of the mobile device within the indoor environment based on signals received from a plurality of wireless access points responsive to receiving the request for the position of the mobile device; identifying an ambiguity in the position of the mobile device while estimating the position of the mobile device, where two or more position determination algorithms used for estimating the position provide conflicting results; identifying disambiguation information for resolving the ambiguity in the position of the mobile device; requesting the disambiguation information for resolving the ambiguity associated with the position of the mobile device; receiving the disambiguation information for resolving the ambiguity associated with the position of the mobile device, wherein said disambiguation information comprises information about the use of a particular position determination algorithm producing more accurate results for that particular indoor environment from other mobile devices; determining the position of the mobile device in the indoor environment by selecting results from the same positioning algorithm producing more accurate results for other mobile devices using the received disambiguation information.
Method for the examination of at least one measurement determined in a printing press for its plausibility, the measurement indicating an ink density of a printing ink applied to a print substrate transported through the printing press, a plurality of printing inks different from one another being applied to the print substrate, these printing inks applied to the print substrate being recorded by a recording device having at least one image sensor, the recording device providing digital image data at its output, this image data being evaluated by a regulating device connected to the recording device, from the image data supplied to the regulating device the respective measurement of the inking density of a plurality of the printing inks applied to the print substrate being determined programmatically, in a measuring field assigned to a certain printing ink the measurement of the ink density for this printing ink in a certain measuring range being anticipated, the measurement of the ink density of this printing ink forming a primary ink density in this measuring field, in the same measuring field assigned to the chosen printing ink the respective measurements of the ink densities of the other printing inks involved in the same printing process also being determined, characterized in that these printing inks applied to the print substrate are recorded simultaneously by the recording device having at least one image sensor, the plausibility of the at least one measurement of the ink density of at least one of the printing inks thus determined being checked based on its quantitative ratio to the respective at least one measurement of the ink density of at least one of the other printing inks likewise determined, the measurements of the ink densities of these other printing inks in each case being designated as a secondary ink density, at least the one measurement of the primary ink density being discarded as non-plausible which for the measurement of the at least one other secondary ink density determined in the selected measuring field is in a ratio deviating impermissibly from the reference ratio specified for the selected measuring field.
A method for confirming an in-situ flow information telemetry, iFIT, capability, comprising: receiving, by a first network device from a network management node, a confirmation packet, wherein the confirmation packet comprises confirmation information about whether a second network device has an iFIT capability, wherein the method further comprises: sending, by the first network device, a data packet comprising iFIT information to the second network device in response to that the second network device has the iFIT capability and a ratio of network devices (202, 204, 206, 208, 210) having the iFIT capability on a path from the first network device to the second network device is greater than a preset value. receiving, by a first network device from a network management node, a confirmation packet, wherein the confirmation packet comprises confirmation information about whether a second network device has an iFIT capability, wherein the method further comprises: sending, by the first network device, a data packet comprising iFIT information to the second network device in response to that the second network device has the iFIT capability and a ratio of network devices (202, 204, 206, 208, 210) having the iFIT capability on a path from the first network device to the second network device is greater than a preset value.
A channel prediction method, wherein the method comprises: obtaining a first channel coefficient sequence in a first time period, wherein the first channel coefficient sequence comprises a plurality of complex values of a channel coefficient; and wherein the method further comprises determining a prediction value of the channel coefficient in a second time period based on the first channel coefficient sequence and a preset vocabulary of channel changes, wherein the vocabulary of channel changes comprises a mapping relationship between channel change value indices and change values of the channel coefficient, and the second time period is later than the first time period. obtaining a first channel coefficient sequence in a first time period, wherein the first channel coefficient sequence comprises a plurality of complex values of a channel coefficient; and wherein the method further comprises determining a prediction value of the channel coefficient in a second time period based on the first channel coefficient sequence and a preset vocabulary of channel changes, wherein the vocabulary of channel changes comprises a mapping relationship between channel change value indices and change values of the channel coefficient, and the second time period is later than the first time period.