mhurhangee/ep-ind-claims huggingface dataset:
Bale wrapping device for a round baler, with a supply device extending along the width of a baling chamber of a round baler for introducing wrapping material into the baling chamber, wherein the supply device comprises a shielding layer, which is arranged on the upper side thereof, for the upper-side shielding of a free end of the wrapping material that is to be introduced into the baling chamber, wherein the shielding layer comprises a plurality of shielding lips which are arranged parallel to one another along the width of the baling chamber and extend in the direction of an interior of the baling chamber, and wherein the shielding lips extend from a fixed end on a common shielding lip holder, which extends along the width of the baling chamber, towards a free end in the direction of the interior of the baling chamber, characterized in that the shielding lip holder comprises an apparatus in which the shielding lips are individually clamped or held.
A method for managing operations of applications in an electronic device, the method comprising: identifying a first application which is active on the electronic device; detecting an event based on a context of the first application; identifying a second application, which is non-active and related to the first application, based on the event; displaying one or more action elements related to the second application on the first application; pinning, on a screen of the first application, an action element selected according to a user input, among the one or more action elements; and providing a content obtained from the first application to the pinned action element of the second application; wherein the one or more action elements are driven based on the context and a content of the first application, and wherein the providing the content comprises at least one of sharing the content of the first application with the pinned action element of the second application or moving the content of the first application to the pinned action element of the second application. identifying a first application which is active on the electronic device; detecting an event based on a context of the first application; identifying a second application, which is non-active and related to the first application, based on the event; displaying one or more action elements related to the second application on the first application; pinning, on a screen of the first application, an action element selected according to a user input, among the one or more action elements; and providing a content obtained from the first application to the pinned action element of the second application; wherein the one or more action elements are driven based on the context and a content of the first application, and wherein the providing the content comprises at least one of sharing the content of the first application with the pinned action element of the second application or moving the content of the first application to the pinned action element of the second application.
Method for mapping Wi-Fi fingerprints in a predetermined geographical area, characterised in that it comprises: - a step of collecting Wi-Fi signal strength measurements, with each measurement being represented by a vector constituted by the respective signal strength levels emitted by a plurality of Wi-Fi access points, with the collecting of said measurements being carried out sequentially along at least one path of a user in said geographical area, in order to provide at least one sequence of measurements; - a step of determining a graph that is representative of the path, with each measurement of said sequence corresponding to a node or to a single point of an edge of this graph; - a step of topographical characterisation of said path using at least said graph that is representative of the path and a geometric model of the geographical area, with the topographical characterisation associating each measurement with a point of the geometric model; - a step of storing the sequence of measurements in a database, with each measurement stored in relation with the point of the geometric model that was associated to it in the preceding step. - a step of collecting Wi-Fi signal strength measurements, with each measurement being represented by a vector constituted by the respective signal strength levels emitted by a plurality of Wi-Fi access points, with the collecting of said measurements being carried out sequentially along at least one path of a user in said geographical area, in order to provide at least one sequence of measurements; - a step of determining a graph that is representative of the path, with each measurement of said sequence corresponding to a node or to a single point of an edge of this graph; - a step of topographical characterisation of said path using at least said graph that is representative of the path and a geometric model of the geographical area, with the topographical characterisation associating each measurement with a point of the geometric model; - a step of storing the sequence of measurements in a database, with each measurement stored in relation with the point of the geometric model that was associated to it in the preceding step.
A computer-implemented method comprising: issuing a first digital certificate (306, 406) to an entity, the first digital certificate (306, 406) specifying a critical extension indicating that the first digital certificate is to be used only for validation of the entity to a certificate authority service (102, 202, 304), the first digital certificate (306, 406): specifying at least one subject field specific to the entity; specifying a first public cryptographic key corresponding to a first private cryptographic key; and specifying a first validity period for the first digital certificate (306, 406); receiving, from the entity, a request for issuance of a second digital certificate (308, 506), the request including the first digital certificate (306, 406) and a digital signature, the second digital certificate (308, 506) being usable for authentication of a server (104, 402, 502) of the entity; determining, based at least in part on a validity period specified within the first digital certificate (306, 406) and the first public cryptographic key, whether to issue the second digital certificate (308, 506); and issuing the second digital certificate (308, 506) to have the at least one subject field and a second validity period that is shorter than the first validity period, the second validity period being specified within the second digital certificate (308, 506). issuing a first digital certificate (306, 406) to an entity, the first digital certificate (306, 406) specifying a critical extension indicating that the first digital certificate is to be used only for validation of the entity to a certificate authority service (102, 202, 304), the first digital certificate (306, 406): specifying at least one subject field specific to the entity; specifying a first public cryptographic key corresponding to a first private cryptographic key; and specifying a first validity period for the first digital certificate (306, 406); specifying at least one subject field specific to the entity; specifying a first public cryptographic key corresponding to a first private cryptographic key; and specifying a first validity period for the first digital certificate (306, 406); receiving, from the entity, a request for issuance of a second digital certificate (308, 506), the request including the first digital certificate (306, 406) and a digital signature, the second digital certificate (308, 506) being usable for authentication of a server (104, 402, 502) of the entity; determining, based at least in part on a validity period specified within the first digital certificate (306, 406) and the first public cryptographic key, whether to issue the second digital certificate (308, 506); and issuing the second digital certificate (308, 506) to have the at least one subject field and a second validity period that is shorter than the first validity period, the second validity period being specified within the second digital certificate (308, 506).
Device for heating, ventilating and/or air conditioning a vehicle interior, with an air-mixing chamber which has a hot air inlet for supplying hot air into the air-mixing chamber, a cold air inlet for supplying cold air into the air-mixing chamber as well as a first mixed air outlet and a second mixed air outlet for discharging mixed air out of the air-mixing chamber into different regions of the vehicle interior, a first control flap assigned to the first mixed air outlet for control of a mixed air mass flow at the first mixed air outlet, and a second control flap assigned to the second mixed air outlet for control of a mixed air mass flow at the second mixed air outlet, wherein there is assigned to one of the air inlets (32, 34) an adjustable air-guiding element for throttling and/or deflection of the hot air or cold air which flows through one air inlet (32, 34) into the air-mixing chamber, wherein the air-guiding element is arranged between the cold air inlet and the second mixed air outlet in the air-mixing chamber, wherein the adjustable air-guiding element is assigned to the cold air inlet and can throttle and/or deflect the cold air which flows through the cold air inlet into the air-mixing chamber, characterized in that a mixed air flap is provided which sets the ratio between hot air supplied via the hot air inlet and cold air supplied via the cold air inlet for temperature control of the mixed air. an air-mixing chamber which has a hot air inlet for supplying hot air into the air-mixing chamber, a cold air inlet for supplying cold air into the air-mixing chamber as well as a first mixed air outlet and a second mixed air outlet for discharging mixed air out of the air-mixing chamber into different regions of the vehicle interior, a first control flap assigned to the first mixed air outlet for control of a mixed air mass flow at the first mixed air outlet, and a second control flap assigned to the second mixed air outlet for control of a mixed air mass flow at the second mixed air outlet, wherein there is assigned to one of the air inlets (32, 34) an adjustable air-guiding element for throttling and/or deflection of the hot air or cold air which flows through one air inlet (32, 34) into the air-mixing chamber, wherein the air-guiding element is arranged between the cold air inlet and the second mixed air outlet in the air-mixing chamber, wherein the adjustable air-guiding element is assigned to the cold air inlet and can throttle and/or deflect the cold air which flows through the cold air inlet into the air-mixing chamber, characterized in that a mixed air flap is provided which sets the ratio between hot air supplied via the hot air inlet and cold air supplied via the cold air inlet for temperature control of the mixed air.
An injection molding apparatus for molding a thermoset resin, the injection molding apparatus comprising: an inlet component having an inlet and a plurality of outlets, the inlet for receiving molding material from a source; a plurality of nozzles (100, 200), each nozzle (100, 200) having an inlet and a nozzle channel for delivering molding material from the nozzle inlet to a molding material outlet and through a mold gate and into a mold cavity, each nozzle (100, 200) having an actuated valve pin for opening and closing the mold gate; and a plurality of molding material hoses, each molding material hose connected between an outlet of the inlet component and an inlet of one of the plurality of nozzles (100, 200) for conveying molding material from the inlet component to the connected nozzle (100, 200); wherein the inlet component, the plurality of nozzles (100, 200), and the molding material hoses are heaterless, and wherein a downstream end of at least one of the plurality of nozzles (100, 200) is removably fastened to a mold plate, the mold plate defining at least a portion of the mold cavity, characterized in that each of the plurality of nozzles comprises a nozzle core (136, 236) that defines the nozzle channel for conveying molding material, and a cooling channel for flow of coolant to cool the molding material in the nozzle channel, wherein the downstream end of each of the nozzles (100, 200) is removably fastened to the mold plate by a bushing (118, 204), and wherein the nozzle core has a mounting flange (144, 404) against which the bushing (118, 204) abuts. an inlet component having an inlet and a plurality of outlets, the inlet for receiving molding material from a source; a plurality of nozzles (100, 200), each nozzle (100, 200) having an inlet and a nozzle channel for delivering molding material from the nozzle inlet to a molding material outlet and through a mold gate and into a mold cavity, each nozzle (100, 200) having an actuated valve pin for opening and closing the mold gate; and a plurality of molding material hoses, each molding material hose connected between an outlet of the inlet component and an inlet of one of the plurality of nozzles (100, 200) for conveying molding material from the inlet component to the connected nozzle (100, 200); wherein the inlet component, the plurality of nozzles (100, 200), and the molding material hoses are heaterless, and wherein a downstream end of at least one of the plurality of nozzles (100, 200) is removably fastened to a mold plate, the mold plate defining at least a portion of the mold cavity, characterized in that each of the plurality of nozzles comprises a nozzle core (136, 236) that defines the nozzle channel for conveying molding material, and a cooling channel for flow of coolant to cool the molding material in the nozzle channel, wherein the downstream end of each of the nozzles (100, 200) is removably fastened to the mold plate by a bushing (118, 204), and wherein the nozzle core has a mounting flange (144, 404) against which the bushing (118, 204) abuts.
Crystallized hybrid solid with a DMOF-1-N 3 organic-inorganic matrix, of three-dimensional structure, containing an inorganic network of zinc-based metal centers connected to one another by organic ligands constituted by the entities -O 2 C-C 6 H 3 -N 3 -CO 2 - (N3-bdc ligand) and C 6 H 12 N 2 (DABCO ligand), with said solid having an X-ray diffraction diagram including at least the lines inscribed in the table below: 2 Thêta (°) d hkl (Å) I/I 0 2 Thêta (°) d hkl (Å) I/I 0 8.152 10.837643 F 27.609 3.228232 ff 9.19 9.615264 mf 27.813 3.205088 ff 11.538 7.663371 mf 29.029 3.0735 f 12.296 7.192531 mf 29.698 3.005821 ff 14.77 5.992845 ff 29.793 2.996423 ff 16.345 5.418821 FF 30.201 2.956894 ff 18.29 4.846741 f 30.938 2.888069 ff 18.44 4.807632 ff 31.15 2.868907 ff 18.782 4.720763 f 32.046 2.790679 ff 20.19 4.394638 ff 32.428 2.758663 ff 20.504 4.327992 ff 33.035 2.709411 ff 21.806 4.072553 ff 33.492 2.673413 ff 23.195 3.831685 ff 34.082 2.628514 ff 24.623 3.612547 f 34.36 2.607855 ff 24.737 3.596266 ff 35.102 2.554457 ff 24.996 3.559468 ff 35.184 2.548681 ff 25.978 3.427163 ff 35.373 2.535482 ff 26.086 3.413252 ff 36.361 2.468819 ff 26.333 3.381744 ff 36.52 2.458421 ff where FF = Very High; F = High; m = Medium; mf = Medium Low; f = Low; ff = Very Low, with the relative intensity I/I o being provided relative to a relative intensity scale where a value of 100 is assigned to the most intense line of the X-ray diffraction diagram: ff< 15; 15 ≤ f < 30; 30 ≤ mf < 50; 50 ≤ m < 65; 65 ≤ F < 85; and FF ≥ 85.
An in vitro method of differentiating human pluripotent stem cells into atrial cardiomyocytes, the method comprising the steps of: a) contacting the human pluripotent stem cells with a Wnt-signaling agonist and/or a BMP-signaling agonist in an aqueous media for a period of about 6 - 54 hours; b) after step a), contacting the Wnt-signaling agonist and/or BMP-signaling agonist-contacted cells with a Wnt-signaling antagonist in an aqueous media for a period of about 6 - 54 hours; and wherein the cells are contacted with a retinoic acid-signaling agonist in an aqueous media within the first 96 hours of steps a) and b), for a period of at least 6 hours. a) contacting the human pluripotent stem cells with a Wnt-signaling agonist and/or a BMP-signaling agonist in an aqueous media for a period of about 6 - 54 hours; b) after step a), contacting the Wnt-signaling agonist and/or BMP-signaling agonist-contacted cells with a Wnt-signaling antagonist in an aqueous media for a period of about 6 - 54 hours; and
Roof anchoring for attachment to a roof having an installed roof covering material, such as a flat roof, wherein the roof anchoring comprises: - a placing member (2,71) for placing the roof anchoring on a surface of the roof, which placing member preferably comprises a flat plate material, - a fixing member for fixing an element for anchoring to the roof anchoring, wherein - the placing member is provided with a plurality of openings wherein a deformable material, such as a glue material or a roof covering material such as bitumen, rubber or plastic material is received, for the purpose of providing by means of the deformable material an adhesive effect between the installed roof covering material and the placing member, characterized in that: - the roof anchoring being manufactured by a method comprising the steps of: - providing a casting receptacle or a mould, - casting the deformable material in the casting receptacle or the mould, wherein the deformable material preferably has a temperature at which it is fluid but still retains the desired material properties, - placing a placing member in the casting receptacle or the mould for the purpose of providing an adhesive contact with the base material, - wherein the placing member is preferably arranged in the deformable material such that, after cooling of the deformable material, the deformable material is situated above and below the placing member. - a placing member (2,71) for placing the roof anchoring on a surface of the roof, which placing member preferably comprises a flat plate material, - a fixing member for fixing an element for anchoring to the roof anchoring, wherein - the placing member is provided with a plurality of openings wherein a deformable material, such as a glue material or a roof covering material such as bitumen, rubber or plastic material is received, for the purpose of providing by means of the deformable material an adhesive effect between the installed roof covering material and the placing member, characterized in that: - the roof anchoring being manufactured by a method comprising the steps of: - providing a casting receptacle or a mould, - casting the deformable material in the casting receptacle or the mould, wherein the deformable material preferably has a temperature at which it is fluid but still retains the desired material properties, - placing a placing member in the casting receptacle or the mould for the purpose of providing an adhesive contact with the base material, - wherein the placing member is preferably arranged in the deformable material such that, after cooling of the deformable material, the deformable material is situated above and below the placing member.
A method for assessing the quality of a semiconductor structure to determine suitability of the semiconductor structure for use in a radiofrequency device, the semiconductor structure having a front surface and a back surface generally parallel to the front surface and comprising a charge trapping layer, the method comprising: illuminating the semiconductor structure by a laser at two wavelengths to generate charge carriers in the semiconductor structure; measuring an electrostatic parameter of the semiconductor structure during or after illumination of the structure to generate charge carriers in the semiconductor structure, the electrostatic parameter being the capacitance of the semiconductor structure; and assessing the quality of the semiconductor structure to determine suitability of the semiconductor structure for use in a radiofrequency device based on the measured electrostatic parameter of the semiconductor structure. illuminating the semiconductor structure by a laser at two wavelengths to generate charge carriers in the semiconductor structure; measuring an electrostatic parameter of the semiconductor structure during or after illumination of the structure to generate charge carriers in the semiconductor structure, the electrostatic parameter being the capacitance of the semiconductor structure; and assessing the quality of the semiconductor structure to determine suitability of the semiconductor structure for use in a radiofrequency device based on the measured electrostatic parameter of the semiconductor structure.
An inventory management method comprising the steps of: - controlling shelf devices arranged on shelves of a fixture to cause the shelf devices to implement a localization process; - controlling a sensor to acquire sensor signals during the localization process; and - localizing each of said shelf devices based on the acquired sensor signals; the method being characterized: - in that controlling said shelf devices comprises sending a device command (D-Cd) to each of said shelf devices, wherein the device command includes a localization process execution time and causes each of said shelf devices to have been switched from a sleep mode (SLPd) to a wake-up mode (WU-BLK) at the localization process execution time and to emit a localization signal before switching back to the sleep mode; and - in that controlling said sensor comprises sending a sensor command (C-Cd) to the sensor, wherein the sensor command includes the localization process execution time and causes the sensor to have been switched from a sleep mode (SLPc) to a wake-up mode (WU-CAP) at the localization process execution time and to capture the localization signal emitted by each of said shelf devices before switching back to the sleep mode. - controlling shelf devices arranged on shelves of a fixture to cause the shelf devices to implement a localization process; - controlling a sensor to acquire sensor signals during the localization process; and - localizing each of said shelf devices based on the acquired sensor signals; the method being characterized: - in that controlling said shelf devices comprises sending a device command (D-Cd) to each of said shelf devices, wherein the device command includes a localization process execution time and causes each of said shelf devices to have been switched from a sleep mode (SLPd) to a wake-up mode (WU-BLK) at the localization process execution time and to emit a localization signal before switching back to the sleep mode; and - in that controlling said sensor comprises sending a sensor command (C-Cd) to the sensor, wherein the sensor command includes the localization process execution time and causes the sensor to have been switched from a sleep mode (SLPc) to a wake-up mode (WU-CAP) at the localization process execution time and to capture the localization signal emitted by each of said shelf devices before switching back to the sleep mode.
A composition for a heat cycle system, which comprises a working fluid for heat cycle containing at least one unsaturated fluorinated hydrocarbon compound selected from a compound having at least one carbon-carbon unsaturated bond in its molecule represented by the following formula, and a refrigerant oil having a breakdown voltage of at least 25 kV, a hydroxy value of at most 0.1 mgKOH/g, and a kinematic viscosity at 40°C of from 5 to 200 mm 2 /s and a kinematic viscosity at 100°C of from 1 to 100 mm 2 /s: C x F y R z wherein R is H or Cl, x is an integer of from 2 to 6, y is an integer of from 1 to 12, and z is an integer of from 0 to 11, provided that 2x≧y+z≧2.
Method for electrically predrying a moist blank of a ceramic raw mixture, the blank being connected into a circuit and an alternating current being passed through the blank, characterized in that the alternating current is passed through the blank at a frequency of greater than 100 Hz.