mhurhangee/ep-ind-claims huggingface dataset:
An automotive adaptive cruise control system for a host motor vehicle configured to operate in at least two different operating modes configured to operate based on one or more control parameters, and comprising a first operating mode, in which a current speed of the host motor vehicle is controlled to maintain a cruise speed, and a second operating mode, in which the current speed of the host motor vehicle is controlled to maintain a cruise distance from a leading motor vehicle; the operating modes are configured to operate based on one or more control parameters including one or more of the cruise speed, the cruise distance and the acceleration/deceleration profile to be implemented by the host motor vehicle to maintain the cruise speed and distance; wherein in the second operating mode, the automotive adaptive cruise control system is further configured to: - estimate a travel trajectory of the leading motor vehicle relative to a travel trajectory of the host motor vehicle, - determine whether the leading motor vehicle is departing from the travel trajectory of the host motor vehicle based on the estimated travel trajectory of the leading motor vehicle relative to the travel trajectory of the host motor vehicle and on a curvature of the road travelled by the leading and host motor vehicles (A, B), and - when it is determined that the leading motor vehicle is departing from the travel trajectory of the host motor vehicle, modify one or more of the control parameters based on which the automotive adaptive cruise control operates in the second operating mode based on the type of road on which the leading and host motor vehicles (A, B) are travelling, so as to differentiate a behaviour of the automotive adaptive cruise control system in the second operating mode between urban roads, suburban roads, and motorways. - estimate a travel trajectory of the leading motor vehicle relative to a travel trajectory of the host motor vehicle, - determine whether the leading motor vehicle is departing from the travel trajectory of the host motor vehicle based on the estimated travel trajectory of the leading motor vehicle relative to the travel trajectory of the host motor vehicle and on a curvature of the road travelled by the leading and host motor vehicles (A, B), and - when it is determined that the leading motor vehicle is departing from the travel trajectory of the host motor vehicle, modify one or more of the control parameters based on which the automotive adaptive cruise control operates in the second operating mode based on the type of road on which the leading and host motor vehicles (A, B) are travelling, so as to differentiate a behaviour of the automotive adaptive cruise control system in the second operating mode between urban roads, suburban roads, and motorways.
Cap assembly, comprising: an outer cap, defining a central axis and comprising an outer cap base part and an outer cap peripheral part which projects substantially perpendicularly from a periphery of the outer cap base part to define an internal space; and an internal structure supported in the internal space, with a gas passageway in communication with external air being defined between the internal structure and the outer cap, the internal structure characterised by comprising a two-way vent hole extending to the vicinity of the outer cap base part in an axial direction extending along the central axis and a one-way vent hole disposed remotely from the outer cap base part in the axial direction, the two-way vent hole being constructed to allow air in a tube member to be discharged into external air via the two-way vent hole and the gas passageway, thereby defining a gas discharge path, when the tube member is mounted to the cap assembly in a gas-tight fashion, and being constructed to allow external air to enter the tube member via the gas passageway and the two-way vent hole, thereby defining a first gas intake path; and the one-way vent hole being constructed to allow external air to enter the tube member via the gas passageway and the one-way vent hole, thereby defining a second gas intake path, but to prohibit air in the tube member from being discharged into external air via the one-way vent hole. an outer cap, defining a central axis and comprising an outer cap base part and an outer cap peripheral part which projects substantially perpendicularly from a periphery of the outer cap base part to define an internal space; and an internal structure supported in the internal space, with a gas passageway in communication with external air being defined between the internal structure and the outer cap, the internal structure characterised by comprising a two-way vent hole extending to the vicinity of the outer cap base part in an axial direction extending along the central axis and a one-way vent hole disposed remotely from the outer cap base part in the axial direction, the two-way vent hole being constructed to allow air in a tube member to be discharged into external air via the two-way vent hole and the gas passageway, thereby defining a gas discharge path, when the tube member is mounted to the cap assembly in a gas-tight fashion, and being constructed to allow external air to enter the tube member via the gas passageway and the two-way vent hole, thereby defining a first gas intake path; and the one-way vent hole being constructed to allow external air to enter the tube member via the gas passageway and the one-way vent hole, thereby defining a second gas intake path, but to prohibit air in the tube member from being discharged into external air via the one-way vent hole.
An ammonia-process desulfurization absorption tower, comprising a tower body, a tower chamber being formed inside the tower body, and the tower body being provided with a lower flue gas inlet and an upper flue gas outlet for guiding a flue gas, an upper circulating liquid inlet and a lower circulating liquid outlet for guiding a desulfurization absorption liquid, and a process water inlet for supplementing a process water, characterized in that, the tower body comprises an internal anti-corrosion layer that is designed for contacting the flue gas and the desulfurization absorption liquid, defines the tower chamber, and is made of a stainless steel plate whose thickness is 1.0 mm to 6.0 mm, and an external supporting layer that is designed for supporting the anti-corrosion layer and is made of carbon steel, especially carbon steel whose material type is Q235 or Q345, wherein the supporting layer and the anti-corrosion layer are designed to jointly bear a load, wherein the supporting layer is designed to bear a large part of the load, and the anti-corrosion layer is designed to bear a small part of the load, wherein the anti-corrosion layer comprises a bottom plate, a cylinder, and a top plate, wherein the cylinder comprises two or more sections along a height direction and stainless steel materials of the sections are selected in dependence on an expected chloride ion concentration of the desulfurization absorption liquid during operation of the desulfurization absorption tower.
A liquid fuel composition suitable for use in an internal combustion engine comprising: (a) from 50 to 90 %v/v of a C 1 -C 4 alcohol; (b) from 10 to 50 %v/v of a Fischer-Tropsch derived naphtha which has a Research Octane Number as measured by ASTM D2699 and a Motor Octane Number as measured by ASTM D2700 independently being at most 60; and optionally (c) up to 10 %v/v of a C 3 -C 6 hydrocarbon component; wherein the fuel composition has a Research Octane Number as measured by ASTM D2699 in the range of from 80 to 120 and a Motor Octane Number as measured by ASTM D2700 in the range of from 65 to 110. (a) from 50 to 90 %v/v of a C 1 -C 4 alcohol; (b) from 10 to 50 %v/v of a Fischer-Tropsch derived naphtha which has a Research Octane Number as measured by ASTM D2699 and a Motor Octane Number as measured by ASTM D2700 independently being at most 60; and optionally (c) up to 10 %v/v of a C 3 -C 6 hydrocarbon component;
A data reading system for reading encoded data on an item, the data reading system comprising: a handheld portable data reader for scanning and reading said encoded data, the data reader comprising a handle for gripping the data reader and including a power supply, the power supply being a rechargeable battery configured to power the data reader; a base unit configured to receive the data reader and to charge the power supply of the data reader through inductive charging when the data reader is coupled with the base unit, the base unit providing a platform for supporting the data reader; a capacitive sensor disposed within the handle of the data reader or within the base unit and configured to detect an approach of a user's hand based on a threshold change in capacitance; and a processor in operable communication with the sensor and the base unit, the processor configured to adjust an amount of current used to charge the power supply of the data reader when coupled with the base unit through inductive charging responsive to the sensor detecting the approach of the user's hand, characterized in that the processor is configured to adapt the threshold change in capacitance over time based on repeated instances to better predict the removal of the data reader from the base unit, the repeated instances including instances when the threshold change in capacitance was surpassed but the data reader was not removed from the base unit or instances when the threshold change in capacitance was not surpassed but the data reader was removed from the base unit. a handheld portable data reader for scanning and reading said encoded data, the data reader comprising a handle for gripping the data reader and including a power supply, the power supply being a rechargeable battery configured to power the data reader; a base unit configured to receive the data reader and to charge the power supply of the data reader through inductive charging when the data reader is coupled with the base unit, the base unit providing a platform for supporting the data reader; a capacitive sensor disposed within the handle of the data reader or within the base unit and configured to detect an approach of a user's hand based on a threshold change in capacitance; and a processor in operable communication with the sensor and the base unit, the processor configured to adjust an amount of current used to charge the power supply of the data reader when coupled with the base unit through inductive charging responsive to the sensor detecting the approach of the user's hand, characterized in that the processor is configured to adapt the threshold change in capacitance over time based on repeated instances to better predict the removal of the data reader from the base unit, the repeated instances including instances when the threshold change in capacitance was surpassed but the data reader was not removed from the base unit or instances when the threshold change in capacitance was not surpassed but the data reader was removed from the base unit.
A fiber optic interface module configured to support first and second optical fibers, comprising: a module body having front and rear ends (14, 16), a top surface, a bottom surface and opposing sides along with optical pathways that are substantially transparent to light having an infrared wavelength; characterized by first and second optical fiber support features formed in the top surface; a ridge formed in the top surface and having first and second end walls defining a step and that respectively terminate the first and second optical fiber support features, and an angled wall that defines a total-internal-reflection mirror; a recess formed in the module body in the bottom surface adjacent the front end and that defines a ceiling; and first and second lens surfaces formed on the ceiling and having respective first and second folded lens axes that are aligned with the first and second optical fiber support features and the total-internal-reflection mirror, with the first and second lens surfaces and the first and second end walls respectively defining first and second lenses having different first and second folded optical paths with the first and the second folded optical paths having different lengths. a module body having front and rear ends (14, 16), a top surface, a bottom surface and opposing sides along with optical pathways that are substantially transparent to light having an infrared wavelength; characterized by first and second optical fiber support features formed in the top surface; a ridge formed in the top surface and having first and second end walls defining a step and that respectively terminate the first and second optical fiber support features, and an angled wall that defines a total-internal-reflection mirror; a recess formed in the module body in the bottom surface adjacent the front end and that defines a ceiling; and first and second lens surfaces formed on the ceiling and having respective first and second folded lens axes that are aligned with the first and second optical fiber support features and the total-internal-reflection mirror, with the first and second lens surfaces and the first and second end walls respectively defining first and second lenses having different first and second folded optical paths with the first and the second folded optical paths having different lengths.
An appliance for preparing single serves of a cooled edible food product, comprising a receptacle configured for receiving a capsule (100, 150) that contains a food substance; a processing unit for processing the food substance into said edible food product; an adapter unit configured for coupling to the capsule and drawing the food substance therefrom; wherein said adapter unit comprises an adapter being at an end of a conduit and being configured for coupling with a tube (108, 158) that extends from the capsule's interior, the conduit leading to the processing unit and being linked to a vacuum source configured for emptying the content of the capsule (100, 150) by drawing the food substance out of the capsule through the tube (108, 158) into the conduit and transferring it through said conduit into the processing unit, the adapter unit being configured for drawing the food substance from the capsule without introduction of a carrier fluid into the capsule, and the conduit comprises a valve configured for controllably permitting entry of ambient air into the conduit to clean the conduit from residual food substance. a receptacle configured for receiving a capsule (100, 150) that contains a food substance; a processing unit for processing the food substance into said edible food product; an adapter unit configured for coupling to the capsule and drawing the food substance therefrom; wherein said adapter unit comprises an adapter being at an end of a conduit and being configured for coupling with a tube (108, 158) that extends from the capsule's interior, the conduit leading to the processing unit and being linked to a vacuum source configured for emptying the content of the capsule (100, 150) by drawing the food substance out of the capsule through the tube (108, 158) into the conduit and transferring it through said conduit into the processing unit, the adapter unit being configured for drawing the food substance from the capsule without introduction of a carrier fluid into the capsule, and the conduit comprises a valve configured for controllably permitting entry of ambient air into the conduit to clean the conduit from residual food substance.
A method for adjusting discontinuous reception 'DRX' behavior of a user equipment 'UE' to conserve energy use, the UE being in wireless communication with a base station, the method being performed by a radio access network 'RAN' controller that is communicatively coupled to the base station, the method comprising: exposing a DRX application programming interface 'API' that enables DRX parameters to be changed; creating a conflict resolution policy that controls when requests to change the DRX parameters should be granted, the conflict resolution policy being designed to prevent conflicts between different applications; receiving, via the DRX API, a first request from a first application to change a DRX parameter for the UE from a current value to a new value, wherein the first application is external to the UE and is configured to send data to the UE via a mobile network that comprises the base station; determining, based at least in part on the conflict resolution policy, that the first request should be granted; and sending a command to the base station, the command causing the base station to communicate the new value of the DRX parameter to the UE. exposing a DRX application programming interface 'API' that enables DRX parameters to be changed; creating a conflict resolution policy that controls when requests to change the DRX parameters should be granted, the conflict resolution policy being designed to prevent conflicts between different applications; receiving, via the DRX API, a first request from a first application to change a DRX parameter for the UE from a current value to a new value, wherein the first application is external to the UE and is configured to send data to the UE via a mobile network that comprises the base station; determining, based at least in part on the conflict resolution policy, that the first request should be granted; and sending a command to the base station, the command causing the base station to communicate the new value of the DRX parameter to the UE.
A system for measuring changes in skin parameters of living beings on a skin surface to be examined as a function of the residence time of a substance, comprising - at least one measuring apparatus for measuring the skin parameters, - at least one dispenser means configured to dispense, when operated, a substance associated with this dispenser means and applicable on the skin surface to be examined, and - a memory means (6, 16), the measuring apparatus being configured to record in said memory device (6, 16) the time of actuation of the dispenser means and the time of the at least one measurement of the skin parameters for the detection of the residence time of the substance, as well as the skin parameters measured which are associated with the time of measurement, wherein the measuring apparatus is coupled to the at least one dispenser means via a local wireless network. - at least one measuring apparatus for measuring the skin parameters, - at least one dispenser means configured to dispense, when operated, a substance associated with this dispenser means and applicable on the skin surface to be examined, and - a memory means (6, 16),
A fabric care formulation comprising: water; an esterquat; and a deposition aid polymer, wherein the deposition aid polymer is a dextran polymer functionalized with quaternary ammonium moieties; wherein the quaternary ammonium moieties are selected from the group consisting of quaternary ammonium moieties of formula bound to a pendant oxygen on the dextran polymer wherein R 6 is selected from the group consisting of a hydrogen and a C 1-4 alkyl group; and wherein each R 7 is independently selected from the group consisting of a methyl group and an ethyl group. water; an esterquat; and a deposition aid polymer, wherein the deposition aid polymer is a dextran polymer functionalized with quaternary ammonium moieties; wherein the quaternary ammonium moieties are selected from the group consisting of quaternary ammonium moieties of formula bound to a pendant oxygen on the dextran polymer wherein R 6 is selected from the group consisting of a hydrogen and a C 1-4 alkyl group; and wherein each R 7 is independently selected from the group consisting of a methyl group and an ethyl group.
Method for calculating an image matrix size N for the purpose of reconstructing image data of an examination subject from projection data, wherein - the projection data was acquired during a relative rotational movement between a radiation source of a computed tomography system and the examination subject, - the image matrix size N is calculated as a function of the extent of the axial field of view F ax of the computed tomography system and a sharpness value ρ c in the image data to be reconstructed, and - the calculated image matrix size is made available to a reconstruction unit for the purpose of reconstructing the image data from the projection data, and - the image matrix size N is calculated according to N = ΔN ∗ ⌈ 2 ∗ a ∗ F ax ∗ ρ c ΔN ⌉ or according to N = min N max, max N min, ΔN ∗ ⌈ 2 ∗ F ax ∗ ρ c ∗ f ΔN + c ⌉, where N - is the calculated image matrix size, ΔN - is a minimum increment, a - is a proportionality constant, F ax - is the axial field of view, ρ c - is the sharpness value, N max - is a maximum permitted image matrix size, N min - is a minimum permitted image matrix size, f - is a free scaling factor, and c - is a free offset parameter. - the projection data was acquired during a relative rotational movement between a radiation source of a computed tomography system and the examination subject, - the image matrix size N is calculated as a function of the extent of the axial field of view F ax of the computed tomography system and a sharpness value ρ c in the image data to be reconstructed, and - the calculated image matrix size is made available to a reconstruction unit for the purpose of reconstructing the image data from the projection data, and - the image matrix size N is calculated according to N = ΔN ∗ ⌈ 2 ∗ a ∗ F ax ∗ ρ c ΔN ⌉ or according to N = min N max, max N min, ΔN ∗ ⌈ 2 ∗ F ax ∗ ρ c ∗ f ΔN + c ⌉, where N - is the calculated image matrix size, ΔN - is a minimum increment, a - is a proportionality constant, F ax - is the axial field of view, ρ c - is the sharpness value, N max - is a maximum permitted image matrix size, N min - is a minimum permitted image matrix size, f - is a free scaling factor, and c - is a free offset parameter. N - is the calculated image matrix size, ΔN - is a minimum increment, a - is a proportionality constant, F ax - is the axial field of view, ρ c - is the sharpness value, N max - is a maximum permitted image matrix size, N min - is a minimum permitted image matrix size, f - is a free scaling factor, and c - is a free offset parameter.
Table fan comprising a fan and a suction opening via which air is suctioned downwards, and a filter chamber having at least one filter element, wherein the table fan comprises a cleaning device which has a circulation system for guiding cleaning liquid in a cleaning circuit and at least one portion of the filter element is located in the cleaning circuit, characterised in that the filter chamber consists of two housing parts (300, 301) and the suction opening, in which the filter element is arranged, is formed in a housing part which is extendable upwards at least in some areas.
A wire feeding device of a welding machine, said wire feeding device comprising - a frame, - a hub system arranged to the frame for winding a wire coil, and - a wire feeding mechanism for pulling the welding wire from a wire coil such that the wire coil rotates in the unwinding direction and for feeding the welding wire through the wire feeding mechanism to a welding torch, characterized in that the hub system comprises means for storing energy, said means for storing energy being adapted to store energy as the wire feeding mechanism starts pulling the welding wire from the wire coil in the unwinding direction such that, when the wire feeding mechanism stops pulling the welding wire, the stored energy is adapted to be released, pulling the wire coil in the winding direction, which is the opposite direction in relation to the unwinding direction. - a frame, - a hub system arranged to the frame for winding a wire coil, and - a wire feeding mechanism for pulling the welding wire from a wire coil such that the wire coil rotates in the unwinding direction and for feeding the welding wire through the wire feeding mechanism to a welding torch,