mhurhangee/ep-ind-claims huggingface dataset:
A mobile terminal configured to operate in a Single User Multiple-Input-Multiple-Output, SU-MIMO, mode and a Multi User Multiple-Input-Multiple-Output, MU-MIMO, mode, the mobile terminal comprising: a receiver configured to receive from a base station: information redefining a subset of SU-MIMO signaling bits to be associated with MU-MIMO signaling, the subset of SU-MIMO signaling bits having been identified as being associated with SU-MIMO signaling that is not needed in the MU-MIMO mode; and MU-MIMO signaling bits in the MU-MIMO mode, the MU-MIMO signaling bits comprising the redefined subset of SU-MIMO signaling bits; and a processor configured to interpret the redefined subset of SU-MIMO signaling bits in the MU-MIMO mode based on the information. information redefining a subset of SU-MIMO signaling bits to be associated with MU-MIMO signaling, the subset of SU-MIMO signaling bits having been identified as being associated with SU-MIMO signaling that is not needed in the MU-MIMO mode; and MU-MIMO signaling bits in the MU-MIMO mode, the MU-MIMO signaling bits comprising the redefined subset of SU-MIMO signaling bits; and a processor configured to interpret the redefined subset of SU-MIMO signaling bits in the MU-MIMO mode based on the information.
Method (S1-S6) for operating a heat pump dryer, especially an air circulation heat pump dryer, wherein, in order to identify a disruption to a circulation of process air or a disruption to a circulation of a coolant in a heat pump (7 to 10), at least one operating parameter (ω, P) of a compressor of the heat pumps (7 to 10) is monitored (S2 to S5) for a change.
A method for providing a packaging material, comprising: feeding a web of packaging material through a packaging material processing unit; determining a target position of said packaging material; and controlling a printing unit to print an RFID antenna at said target position, wherein the material used for printing the RFID antenna is a conductive substance, wherein controlling a printing unit to print an RFID antenna at said target position further comprises printing one or more resonance circuits adjacent to said antenna, the method being characterized in that it further comprises coating said one or more resonance circuits with a substance, which substance is configured to change the resonance frequency of the resonance circuit.
A method of determining a corrected measured flow rate, the method comprising: measuring a flow rate with a first flow meter; measuring a flow rate with a second flow meter, the second flow meter being fluidly coupled to the first flow meter in series; and characterized by correcting the measured flow rate of the first flow meter with a difference between a previously measured flow rate of the first flow meter and a previously measured flow rate of the second flow meter measured at a prior time when a flow through the first flow meter and the second flow meter was equal, wherein a zero flow instability of the first flow meter is greater than a zero flow instability of the second flow meter, and correcting the measured flow rate of the first flow meter with the difference between the previously measured flow rate of the first flow meter and the previously measured flow rate of the second flow meter extends a measurement range of the first flow meter to flow rates just above a zero flow where the measurement signal cannot be distinguished from noise. measuring a flow rate with a first flow meter; measuring a flow rate with a second flow meter, the second flow meter being fluidly coupled to the first flow meter in series; and characterized by correcting the measured flow rate of the first flow meter with a difference between a previously measured flow rate of the first flow meter and a previously measured flow rate of the second flow meter measured at a prior time when a flow through the first flow meter and the second flow meter was equal, wherein a zero flow instability of the first flow meter is greater than a zero flow instability of the second flow meter, and correcting the measured flow rate of the first flow meter with the difference between the previously measured flow rate of the first flow meter and the previously measured flow rate of the second flow meter extends a measurement range of the first flow meter to flow rates just above a zero flow where the measurement signal cannot be distinguished from noise.
A testing device for a tire inflation device having an inflation ring which is engageable against a sidewall of a tire and has an annular opening through which gas under pressure can be fed to the tire, and a sealing device arranged opposite the inflation ring, comprising a housing which includes a bottom and an annular outer wall with a cylindrical inner surface bounding an inflation chamber, a piston which is movably guided on the cylindrical inner surface, is sealed and has on the side facing away from the bottom an annular engagement surface for sealingly engaging the inflation ring and radially within the engagement surface has a piston opening leading into the housing, at least one spring arranged between the bottom of the housing and the piston, its spring force seeking to move the piston away from the bottom, and a pressure sensor capable of detecting the pressure in an inner chamber of the housing adapted to be filled with compressed gas and converting the pressure into electrical quantities.
A system comprising a group of motors from which a motor is selected, a group of gear mechanisms from which a gear mechanism is selected, and a coupling for creating a drive unit from one of the selected motors, one of the selected gear mechanisms, and the coupling, wherein the coupling is designed to transmit a drive torque from a shaft of the motor to a drive shaft of the gear mechanism, wherein the coupling has a spur gear and an coupling sleeve, wherein the spur gear is non-rotatably connected to the shaft of the motor and the coupling sleeve is non-rotatably connected to the drive shaft of the gear mechanism, wherein the spur gear has a spur toothing and the coupling sleeve has an internal gear, these forming a mutually corresponding plug-in connection and being embodied such that the spur toothing is inserted without application of force into the internal gear, wherein the motors of the group of motors differ in their dimensions, and wherein the gear mechanisms of the group of gear mechanisms differ in their dimensions, a coupling housing of the coupling being non-rotatably fixable to a gear mechanism housing of the gear mechanism and to a motor housing of the motor and being designed to non-rotatably connect them to one another. wherein the coupling is designed to transmit a drive torque from a shaft of the motor to a drive shaft of the gear mechanism, wherein the coupling has a spur gear and an coupling sleeve, wherein the spur gear is non-rotatably connected to the shaft of the motor and the coupling sleeve is non-rotatably connected to the drive shaft of the gear mechanism, wherein the spur gear has a spur toothing and the coupling sleeve has an internal gear, these forming a mutually corresponding plug-in connection and being embodied such that the spur toothing is inserted without application of force into the internal gear, wherein the motors of the group of motors differ in their dimensions, and wherein the gear mechanisms of the group of gear mechanisms differ in their dimensions, a coupling housing of the coupling being non-rotatably fixable to a gear mechanism housing of the gear mechanism and to a motor housing of the motor and being designed to non-rotatably connect them to one another.
Cutting machine for strand-shaped foods having a cutting blade driven via a drive motor and a machine housing in which the drive motor is accommodated, wherein a surface of the housing has a coating, characterized in that the coating has oxide ceramic and polytetrafluoroethylene as constituents which are arranged together with a binder together in a matrix, wherein the binder forms a stable matrix for the oxide ceramic and the polytetrafluoroethylene, wherein the oxide ceramic has particles of aluminium oxide Al 2 O 3 and titanium dioxide TiO 2.
Accelerator mixture for concrete or mortar, which is present as a powder composition which contains the following: (a) aluminium in oxidation state 3 (b) sulphate and (c) hexafluorosilicic acid. (a) aluminium in oxidation state 3 (b) sulphate and (c) hexafluorosilicic acid.
A handle for a cleaner, the handle comprising: two or more handle bodies (141, 142) that have grip bodies (148a, 148b), respectively; and a single grip cover that is formed of rubber and is insert-injection-molded to surround the grip bodies (148a, 148b) that define a grip part in a state in which the respective grip bodies (148a, 148b) are connected to each other to define the grip part, wherein the single grip cover covers a boundary between the grip bodies (148a, 148b). two or more handle bodies (141, 142) that have grip bodies (148a, 148b), respectively; and a single grip cover that is formed of rubber and is insert-injection-molded to surround the grip bodies (148a, 148b) that define a grip part in a state in which the respective grip bodies (148a, 148b) are connected to each other to define the grip part, wherein the single grip cover covers a boundary between the grip bodies (148a, 148b).
A system for producing ammonia, comprising: a reactor comprising: a first shell having two or more discrete catalyst beds (134, 136, 138, 140) disposed therein; a second shell disposed about the first shell; and a first flow path disposed within the the first shell, wherein the two or more discrete catalyst beds within the first shell are disposed about the first flow path; a first heat exchanger disposed external to the reactor and in fluid communication with the first shell; and a second heat exchanger disposed external to the reactor and in fluid communication with the first shell and the second shell, wherein a second flow path fluidly connects the second shell to the second heat exchanger and a third flow path fluidly connects the second heat exchanger to the first shell such that a fluid from the second shell flows through the second flow path, into the second heat exchanger, and through the third flow path into the first shell. a reactor comprising: a first shell having two or more discrete catalyst beds (134, 136, 138, 140) disposed therein; a second shell disposed about the first shell; and a first flow path disposed within the the first shell, wherein the two or more discrete catalyst beds within the first shell are disposed about the first flow path; a first shell having two or more discrete catalyst beds (134, 136, 138, 140) disposed therein; a second shell disposed about the first shell; and a first flow path disposed within the the first shell, wherein the two or more discrete catalyst beds within the first shell are disposed about the first flow path; a first heat exchanger disposed external to the reactor and in fluid communication with the first shell; and a second heat exchanger disposed external to the reactor and in fluid communication with the first shell and the second shell, wherein a second flow path fluidly connects the second shell to the second heat exchanger and a third flow path fluidly connects the second heat exchanger to the first shell such that a fluid from the second shell flows through the second flow path, into the second heat exchanger, and through the third flow path into the first shell.
A compressor slider having a carbon content of 2.3 wt% to 2.4 wt%, a silicon content of 1.95 wt% to 2.05 wt%, a balance of iron that includes unavoidable impurities, characterised in that the compressor slider has a manganese content of 0.6 wt% to 0.7 wt%, a phosphorus content of less than 0.035 wt%, a sulfur content of less than 0.04 wt%, a chromium content of 0.00 wt% to 0.50 wt%, a nickel content of 0.50 wt% to 1.00 wt%, graphite that is smaller than the flake graphite of flake graphite cast iron, and a hardness that is greater than HRB 90 but less than HRB 100 in at least a portion of the slider.
A lubricating oil composition for hybrid vehicles comprising: a. a major amount of an oil of lubricating viscosity; b. an ethoxylated alcohol demulsifier of the following formula: R 1 -(O-R 2) n -OH wherein R 1 is a branched or linear hydrocarbon group having from 6 to 20 carbon atoms, R 2 is a saturated hydrocarbon group having 2 carbon atoms, and n is an integer from 1 to 10, wherein the ethoxylated alcohol demulsifier is secondary alcohol, and wherein the ethoxylated alcohol demulsifier is present in 0.15 wt% to 5 wt% based on total weight of the lubricating oil composition. a. a major amount of an oil of lubricating viscosity; b. an ethoxylated alcohol demulsifier of the following formula: R 1 -(O-R 2) n -OH
A method for developing and projecting contextual information, comprising: capturing an image of a surface or an object physically disposed on the surface; extracting data including characters from the captured image and converting the characters into machine-readable characters; developing the contextual information from the machine-readable characters; and projecting the contextual information onto the surface or onto the object as supplemental information for a user; characterised in that the surface comprises a touch sensitive mat; and projecting the contextual information comprises projecting visual cues indicating that there is contextual information, whereby the user may select the visual cues to view the contextual information. capturing an image of a surface or an object physically disposed on the surface; extracting data including characters from the captured image and converting the characters into machine-readable characters; developing the contextual information from the machine-readable characters; and projecting the contextual information onto the surface or onto the object as supplemental information for a user; characterised in that the surface comprises a touch sensitive mat; and projecting the contextual information comprises projecting visual cues indicating that there is contextual information, whereby the user may select the visual cues to view the contextual information.
Method for diagnosing the state of a system for supplying fuel to a fuel-injected, controlledignition internal combustion engine, of the type comprising an electronic control device which makes use of an oxygen probe for closed-loop regulation of the value of the air-fuel ratio admitted into the combustion chambers of said engine, and according to which the signal delivered by said oxygen probe is analyzed, characterized in that it consists in: a) deducing from said signal, the change in the injection time correction factor ALPHACL_MEAN that makes it possible to regulate the richness of the exhaust gases leaving the engine, ALPHACL_MEAN being given by the relation: effective injection time = B + ALPHACL_MEAN * GAIN * A * Mair, in which: B is an offset value; GAIN is a coefficient making it possible to take account of the drift in the hydraulic characteristics of the fuel supply system; A is a factor that takes into account various phenomena notably linked to canister draining, the wetting of the walls; Mair is the measured or estimated mass of air admitted into a cylinder of the engine; b) comparing ALPHACL-MEAN with predetermined minimum and maximum threshold values THRESHOLD-_MIN and THRESHOLD_MAX; c) diagnosing a defective state when ALPHACL_MEAN is outside the window contained between THRESHOLD_MIN and THRESHOLD_MAX. a) deducing from said signal, the change in the injection time correction factor ALPHACL_MEAN that makes it possible to regulate the richness of the exhaust gases leaving the engine, ALPHACL_MEAN being given by the relation: effective injection time = B + ALPHACL_MEAN * GAIN * A * Mair, in which: B is an offset value; GAIN is a coefficient making it possible to take account of the drift in the hydraulic characteristics of the fuel supply system; A is a factor that takes into account various phenomena notably linked to canister draining, the wetting of the walls; Mair is the measured or estimated mass of air admitted into a cylinder of the engine; B is an offset value; GAIN is a coefficient making it possible to take account of the drift in the hydraulic characteristics of the fuel supply system; A is a factor that takes into account various phenomena notably linked to canister draining, the wetting of the walls; Mair is the measured or estimated mass of air admitted into a cylinder of the engine; b) comparing ALPHACL-MEAN with predetermined minimum and maximum threshold values THRESHOLD-_MIN and THRESHOLD_MAX; c) diagnosing a defective state when ALPHACL_MEAN is outside the window contained between THRESHOLD_MIN and THRESHOLD_MAX.
A method of wireless communication, comprising: communicating, at a mobile device, with a serving home evolved Node B, HeNB, wherein the serving HeNB is not registered with a positioning server; determining, at the mobile device, a different base station from the serving HeNB, for utilizing assistance information in determining a position of the mobile device; receiving, at the mobile device, assistance information related to the location of the different base station from the serving HeNB or the positioning server; and determining, by the mobile device, the position of the mobile device using the assistance information related to the location of the different base station. communicating, at a mobile device, with a serving home evolved Node B, HeNB, wherein the serving HeNB is not registered with a positioning server; determining, at the mobile device, a different base station from the serving HeNB, for utilizing assistance information in determining a position of the mobile device; receiving, at the mobile device, assistance information related to the location of the different base station from the serving HeNB or the positioning server; and determining, by the mobile device, the position of the mobile device using the assistance information related to the location of the different base station.
A method of microanalyzing ions, comprising the following steps: • placing in a cavity having an internal volume, a volume of an ionic liquid that is smaller than said internal volume; • placing in said cavity a solution containing said ions (C +, A -) that are to be analyzed, the solvent of the solution and the ionic liquid being selected so as to be immiscible and so as to enable ions (C +, A -) to be transferred from said solution to said ionic liquid; and the method being characterized in that it comprises the following step: • detecting the presence of said ions (C +, A -) in said ionic liquid with analyzer means for analyzing at least one type of said ions in solution in said ionic liquid, in the free state or in the complexed state, said analyzer means placed in contact with said ionic liquid being of the type electrochemical analyzer means or optical analyzer means using spectrophotometry or luminescence, and comprising at least one detection means placed in contact with said ionic liquid. • placing in a cavity having an internal volume, a volume of an ionic liquid that is smaller than said internal volume; • placing in said cavity a solution containing said ions (C +, A -) that are to be analyzed, the solvent of the solution and the ionic liquid being selected so as to be immiscible and so as to enable ions (C +, A -) to be transferred from said solution to said ionic liquid; and the method being characterized in that it comprises the following step: • detecting the presence of said ions (C +, A -) in said ionic liquid with analyzer means for analyzing at least one type of said ions in solution in said ionic liquid, in the free state or in the complexed state, said analyzer means placed in contact with said ionic liquid being of the type electrochemical analyzer means or optical analyzer means using spectrophotometry or luminescence, and comprising at least one detection means placed in contact with said ionic liquid.
A lock housing with an anti-panic case comprising a box, obturated by a lid a so-called "cap", a bolt body mounted inside the box so as to be able to axially slide therein and a European type half-cylinder, the bolt body comprises a bottom, two longitudinal sides (51, 52) and ends at one of its ends with a rear partition and at its other end with a bolt, a spring, a so-called "bolt spring", being mounted between the rear partition of the box and the rear partition of the bolt body, this bolt spring permanently tending to move the bolt body into an active position, wherein the bolt protrudes out of the box, each of the two longitudinal sides (51, 52) of said bolt body is pierced with an aperture (512, 522), both of these apertures (512, 522) being coaxial and in that the bottom of the bolt body is pierced with a recess positioned in the vicinity of both of these apertures, said European type half-cylinder being mounted through said housing and positioned through said recess so that, when it is actuated with a key, its bit may engage into either one of these apertures (512, 522) and cause axial displacement of the bolt body, against the force exerted by said bolt spring, until it is brought into a passive position, wherein the bolt is found inside the box.
A short message service, SMS, entity, comprising: - detecting means for detecting at least one request to deliver a plurality of short messages originating from a single user to recipients, characterized by that the short message service entity further comprises: - combining means for combining information related to the recipients of the plurality of short messages in a charging request, wherein the charging request comprises a plurality of recipient addresses, each of the addresses corresponding to a respective recipient, and - transmitting means for transmitting the charging request comprising the plurality of recipient addresses to a charging entity. - detecting means for detecting at least one request to deliver a plurality of short messages originating from a single user to recipients, - combining means for combining information related to the recipients of the plurality of short messages in a charging request, wherein the charging request comprises a plurality of recipient addresses, each of the addresses corresponding to a respective recipient, and - transmitting means for transmitting the charging request comprising the plurality of recipient addresses to a charging entity.
A ventilation device comprising a first air duct for air supply and a second air duct for air supply, where the first air duct comprises a first outlet for air flow and the second air duct comprises a second outlet for air flow, where the first outlet is arranged to admit passage for a predefined amount of air per time unit (F 1), where the second outlet comprises a controllable choke device that is arranged to either take a first position that admits passage for a predefined amount of air per time unit (F 3) or a second position that does not admit passage of air, where the ventilation device comprises a control unit and at least one detector (8, 9), where the control unit is arranged to control the controllable choke device in dependence of input data from said detector (8, 9) such that demand controlled ventilation is obtained, characterized in that the control unit is arranged to control the choke device to shift between the first position and the second position with a periodicity (T α, T β, T λ) such that the first position is taken during a first period of time (T 1A, T 1C) and the second position is taken during a second period of time (T 2A, T 2B, T 2C, T 2D), such that a pulsating air flow is acquired at the second outlet.