mhurhangee/ep-ind-claims huggingface dataset:
A method for performing, by a user equipment, measurements for observed time difference of arrival, OTDOA, the method comprising: receiving, by the user equipment, system information including information on a reference cell for the OTDOA and information on a neighbor cell for the OTDOA; receiving, by the user equipment, a positioning reference signal, PRS, of the reference and a PRS of the neighbor cell based on the system information; and measuring, by the user equipment, relative timing difference between the neighbor cell and the reference cell based the PRSs, wherein the system information includes a PRS muting sequence for at least one of the reference and neighbor cells, wherein the PRS muting sequence indicates which PRS positioning occasion, among a plurality of PRS positioning occasions, a PRS of a corresponding cell is muted in, wherein each of the plurality of PRS positioning occasions comprises of consecutive subframes to which the PRS of the corresponding cell is allocated, and characterized in that: the system information includes information on at least a serving cell for obtaining a system frame number by the UE as the information on the reference cell or the information on the neighbor cell. receiving, by the user equipment, system information including information on a reference cell for the OTDOA and information on a neighbor cell for the OTDOA; receiving, by the user equipment, a positioning reference signal, PRS, of the reference and a PRS of the neighbor cell based on the system information; and measuring, by the user equipment, relative timing difference between the neighbor cell and the reference cell based the PRSs, wherein the system information includes a PRS muting sequence for at least one of the reference and neighbor cells, wherein the PRS muting sequence indicates which PRS positioning occasion, among a plurality of PRS positioning occasions, a PRS of a corresponding cell is muted in, wherein each of the plurality of PRS positioning occasions comprises of consecutive subframes to which the PRS of the corresponding cell is allocated, and characterized in that: the system information includes information on at least a serving cell for obtaining a system frame number by the UE as the information on the reference cell or the information on the neighbor cell.
A mesh network for power distribution, comprising: a plurality of interconnected four-way automatic transfer switches, each four-way automatic transfer switch including a common pole, a first pole selectively coupled to the common pole with a first switching device, a second pole selectively coupled to the common pole with a second switching device, a third pole selectively coupled to the common pole with a third switching device, and a fourth pole selectively coupled to the common pole with a fourth switching device, wherein the first to fourth poles (14, 18, 22, 26) of a first interconnected four-way automatic transfer switch of the plurality of interconnected four-way automatic transfer switches are structured to receive power from corresponding power sources and the common pole is structured to provide power to a corresponding load, wherein the common poles (50b-i) of two or more second interconnected four-way automatic transfer switches of the plurality of interconnected four-way automatic transfer switches (10B-I) are structured to receive power from corresponding power sources; and wherein the first to fourth poles of the second four-way automatic transfer switches of the plurality of interconnected four-way automatic transfer switches are structured to provide power to corresponding loads so that the second four-way automatic transfer switches operate in a reverse power arrangement. a plurality of interconnected four-way automatic transfer switches, each four-way automatic transfer switch including a common pole, a first pole selectively coupled to the common pole with a first switching device, a second pole selectively coupled to the common pole with a second switching device, a third pole selectively coupled to the common pole with a third switching device, and a fourth pole selectively coupled to the common pole with a fourth switching device, a common pole, a first pole selectively coupled to the common pole with a first switching device, a second pole selectively coupled to the common pole with a second switching device, a third pole selectively coupled to the common pole with a third switching device, and a fourth pole selectively coupled to the common pole with a fourth switching device, wherein the first to fourth poles (14, 18, 22, 26) of a first interconnected four-way automatic transfer switch of the plurality of interconnected four-way automatic transfer switches are structured to receive power from corresponding power sources and the common pole is structured to provide power to a corresponding load, wherein the common poles (50b-i) of two or more second interconnected four-way automatic transfer switches of the plurality of interconnected four-way automatic transfer switches (10B-I) are structured to receive power from corresponding power sources; and wherein the first to fourth poles of the second four-way automatic transfer switches of the plurality of interconnected four-way automatic transfer switches are structured to provide power to corresponding loads so that the second four-way automatic transfer switches operate in a reverse power arrangement.
A power generation system comprising - a liquid pump section comprising a rotary liquid pump with an impeller in which a working fluid is pressurised and which is driven by a drive shaft; - an evaporator section comprising an evaporator in which the in the rotary liquid pump pressurised working fluid is at least partly evaporated by addition of heat from a heat source; - an expander section comprising a rotary expander with an inlet port and a rotary expander element in which the in the evaporator section at least partly evaporated working fluid is expanded; and - a generator section comprising a rotary power generator with a rotor, whereby the expander section, the liquid pump section and the generator section are rotably connected in such a manner that relative rotational speed ratios between the rotary expander element of the rotary expander, the impeller of the rotary liquid pump and the rotor of the rotary power generator are mechanically upheld, characterised in that the drive shaft which drives the impeller of the rotary liquid pump, is configured to be provided with a throttling device allowing a controlled portion of the working fluid entering the rotary liquid pump to pass from the liquid pump section to the expander section and/or the generator section. - a liquid pump section comprising a rotary liquid pump with an impeller in which a working fluid is pressurised and which is driven by a drive shaft; - an evaporator section comprising an evaporator in which the in the rotary liquid pump pressurised working fluid is at least partly evaporated by addition of heat from a heat source; - an expander section comprising a rotary expander with an inlet port and a rotary expander element in which the in the evaporator section at least partly evaporated working fluid is expanded; and - a generator section comprising a rotary power generator with a rotor,
Use of a naphthalenesulfonic acid polycondensate as a plasticizer in a construction composition comprising sand and at least one cementitious binder, the naphthalenesulfonic acid polycondensate being obtainable by a condensation reaction of i) a naphthalenesulfonic acid, ii) an alkoxylated hydroxyaryl compound having a polyoxyalkylene chain with 3 to 130 oxyalkylene units, and iii) formaldehyde, in a weight ratio of i): ii) of 95: 5 to 60: 40, preferably 95: 5 to 75: 25, more preferably 95: 5 to 85: 15, wherein the sand has a methylene blue value according to DIN EN 933-9 of at least 10 g/kg. i) a naphthalenesulfonic acid, ii) an alkoxylated hydroxyaryl compound having a polyoxyalkylene chain with 3 to 130 oxyalkylene units, and iii) formaldehyde, in a weight ratio of i): ii) of 95: 5 to 60: 40, preferably 95: 5 to 75: 25, more preferably 95: 5 to 85: 15, wherein the sand has a methylene blue value according to DIN EN 933-9 of at least 10 g/kg.
An electronic cigarette atomizing core, comprising an inner sleeve and an outer sleeve sleeved on the inner sleeve, the outer sleeve being provided with a liquid passing port, an ultrasonic atomization piece being disposed at a middle part of an inner cavity of the outer sleeve, an atomization cavity being formed between the bottom of the inner sleeve and the ultrasonic atomization piece, liquid guide cotton communicated with the liquid passing port being sandwiched between the outer sleeve and the inner sleeve, wherein: the inner sleeve is longitudinally provided with a main air groove and an auxiliary air groove at intervals, the cross sectional area of the auxiliary air groove is 1/4 to 1/8 of the cross sectional area of the main air groove, and the main air groove longitudinally penetrates the inner sleeve, such that the main air groove is communicated with the atomization cavity to form a first air inlet channel of the atomization cavity; an upper part of the inner sleeve is provided with an auxiliary air inlet, a lower end of the auxiliary air groove is communicated with the atomization cavity, an auxiliary air channel is formed between the auxiliary air inlet and the auxiliary air groove, the liquid guide cotton covers the auxiliary air groove, and the auxiliary air inlet, the auxiliary air channel, and the auxiliary air groove are communicated with each other to form a second air inlet channel of the atomization cavity.
A method for fabricating a semiconductor component comprising: providing a semiconductor substrate having a circuit side, a back side and a plurality of conductive vias comprising vias extending from the circuit side to the back side, electrically insulating layers lining the vias and a metal in the vias, each of the vias having a diameter less than 10 μm; forming a plurality of circuit side redistribution conductors on the circuit side in electrical contact with the conductive vias; forming an outer dielectric layer on the circuit side electrically insulating the circuit side redistribution conductors; forming a plurality of openings in the outer dielectric layer, the plurality of openings being aligned with the plurality of conductive vias; removing portions of the semiconductor substrate from the back side to expose terminal portions of the conductive vias extending from the back side, wherein removing portions of the semiconductor substrate removes from 5-10 μm leaving the exposed terminal portion of the conductive vias with a height from 5-10 μm; depositing a polymer layer on the back side encapsulating the terminal portions; planarizing the polymer layer and the terminal portions embedded in the polymer layer to form a planarized polymer surface and planarized contactors on the conductive vias; and forming a plurality of terminal contacts on the planarized contactors. providing a semiconductor substrate having a circuit side, a back side and a plurality of conductive vias comprising vias extending from the circuit side to the back side, electrically insulating layers lining the vias and a metal in the vias, each of the vias having a diameter less than 10 μm; forming a plurality of circuit side redistribution conductors on the circuit side in electrical contact with the conductive vias; forming an outer dielectric layer on the circuit side electrically insulating the circuit side redistribution conductors; forming a plurality of openings in the outer dielectric layer, the plurality of openings being aligned with the plurality of conductive vias; removing portions of the semiconductor substrate from the back side to expose terminal portions of the conductive vias extending from the back side, wherein removing portions of the semiconductor substrate removes from 5-10 μm leaving the exposed terminal portion of the conductive vias with a height from 5-10 μm; depositing a polymer layer on the back side encapsulating the terminal portions; planarizing the polymer layer and the terminal portions embedded in the polymer layer to form a planarized polymer surface and planarized contactors on the conductive vias; and forming a plurality of terminal contacts on the planarized contactors.
A system for highlighting a medical instrument in an image acquired using an ultrasound imaging probe, comprising: an ultrasound marker device including a receive funtion and a transmit function configured to respond to an ultrasonic signal received from the ultrasound imaging probe by emitting, after a delay, another ultrasonic signal which is to be received by the probe, wherein the probe is configured for transmitting and receiving ultrasonic signals to and from a volume in frames with a repetition period, and wherein the marker device is included on the medical instrument disposed in the volume; and a control module configured to: - analyze the ultrasonic signal transmitted by the ultrasound imaging probe and received by the ultrasound marker device to extract the frame repetition period; - further analyze the ultrasonic signal transmitted by the ultrasound imaging probe and received by the ultrasound marker device within a detection window the duration of which is longer than the frame repetition period and shorter than twice the frame repetition period to extract a time of arrival (t 0) of a maximum ultrasonic signal at the marker device; and - cause the marker device to inject the another ultrasonic signal in frames at t 0 +nT, wherein n is an integer. an ultrasound marker device including a receive funtion and a transmit function configured to respond to an ultrasonic signal received from the ultrasound imaging probe by emitting, after a delay, another ultrasonic signal which is to be received by the probe, wherein the probe is configured for transmitting and receiving ultrasonic signals to and from a volume in frames with a repetition period, and wherein the marker device is included on the medical instrument disposed in the volume; and a control module configured to: - analyze the ultrasonic signal transmitted by the ultrasound imaging probe and received by the ultrasound marker device to extract the frame repetition period; - further analyze the ultrasonic signal transmitted by the ultrasound imaging probe and received by the ultrasound marker device within a detection window the duration of which is longer than the frame repetition period and shorter than twice the frame repetition period to extract a time of arrival (t 0) of a maximum ultrasonic signal at the marker device; and - cause the marker device to inject the another ultrasonic signal in frames at t 0 +nT, wherein n is an integer. - analyze the ultrasonic signal transmitted by the ultrasound imaging probe and received by the ultrasound marker device to extract the frame repetition period; - further analyze the ultrasonic signal transmitted by the ultrasound imaging probe and received by the ultrasound marker device within a detection window the duration of which is longer than the frame repetition period and shorter than twice the frame repetition period to extract a time of arrival (t 0) of a maximum ultrasonic signal at the marker device; and - cause the marker device to inject the another ultrasonic signal in frames at t 0 +nT, wherein n is an integer.
A method for wireless communication, comprising: transmitting, from a first node seeking to join a network, a first synchronization signal, wherein the first node is seeking to establish a wireless link between the first node and one or more other nodes of the network, wherein the first node transmits the first synchronization signal in response to failing to detect a synchronization signal from the one or more other nodes of the network in a certain time period; receiving, at the first node, a response signal from a second node that is established in the network; and establishing the wireless link with the second node based at least in part on the response signal from the second node. transmitting, from a first node seeking to join a network, a first synchronization signal, wherein the first node is seeking to establish a wireless link between the first node and one or more other nodes of the network, wherein the first node transmits the first synchronization signal in response to failing to detect a synchronization signal from the one or more other nodes of the network in a certain time period; receiving, at the first node, a response signal from a second node that is established in the network; and establishing the wireless link with the second node based at least in part on the response signal from the second node.
A mounting member for wrapping and mounting a pollution control element in a casing of a pollution control device, comprising: a needle punched mat having inorganic fiber comprising alumina fibers; and a plurality of an aggregated substance, with each substance containing an organic binder and inorganic particles prior to the mounting member being exposed to high temperature conditions of the pollution control device, which plurality of the aggregated substance is impregnated throughout most of the needle punched mat so as to be attached to the inorganic fibers such that the organic binder covers at least a portion of the surface of the inorganic fibers and prevents scattering of fiber pieces, wherein the mat is impregnated with the plurality of the aggregated substance after the mat is needle punched. a needle punched mat having inorganic fiber comprising alumina fibers; and a plurality of an aggregated substance, with each substance containing an organic binder and inorganic particles prior to the mounting member being exposed to high temperature conditions of the pollution control device, which plurality of the aggregated substance is impregnated throughout most of the needle punched mat so as to be attached to the inorganic fibers such that the organic binder covers at least a portion of the surface of the inorganic fibers and prevents scattering of fiber pieces, wherein the mat is impregnated with the plurality of the aggregated substance after the mat is needle punched.
A variable speed switch mounted to an electric power tool and capable of outputting an electric signal for increasing or decreasing an amount of electric power supplied to a motor of the electric power tool according to a displacement amount of a switch-operating portion (31, 32), comprising: the switch-operating portion (31, 32) including a trigger and a movable block; a wake-up contact (60; 70; 80) configured to work when the switch-operating portion (31, 32) is operated and by which a voltage can be applied to a control circuit part of the motor to make the control circuit part in an operable state; and a load sensor configured to receive a pressing force from the switch-operating portion (31, 32) by a displacement of the switch-operating portion (31, 32) after the operation of the wake-up contact (60; 70; 80) is made and to output an electric signal according to the pressing force, characterized in that the variable speed switch further comprises a pressing pin housed in the movable block and configured to be brought into contact with the load sensor for applying the pressing force on the load sensor, and an elastic member, wherein the pressing force from the switch-operating portion (31, 32) is applied to the load sensor via the elastic member, and wherein the wake-up contact (60; 70; 80) is turned on before the trigger is pulled to cause the pressing pin to be brought into contact with the load sensor. the switch-operating portion (31, 32) including a trigger and a movable block; a wake-up contact (60; 70; 80) configured to work when the switch-operating portion (31, 32) is operated and by which a voltage can be applied to a control circuit part of the motor to make the control circuit part in an operable state; and a load sensor configured to receive a pressing force from the switch-operating portion (31, 32) by a displacement of the switch-operating portion (31, 32) after the operation of the wake-up contact (60; 70; 80) is made and to output an electric signal according to the pressing force, characterized in that the variable speed switch further comprises a pressing pin housed in the movable block and configured to be brought into contact with the load sensor for applying the pressing force on the load sensor, and an elastic member, wherein the pressing force from the switch-operating portion (31, 32) is applied to the load sensor via the elastic member, and wherein the wake-up contact (60; 70; 80) is turned on before the trigger is pulled to cause the pressing pin to be brought into contact with the load sensor.
A method of detecting obstructions, the method comprising: moving a moveable structure between a stowed configuration and an operational configuration; receiving an indication that a protective panel attached to the moveable structure is displaced towards a leading surface of the moveable structure, wherein the leading surface is facing a direction of movement when the moveable structure is moving to the stowed configuration or the operational configuration; and halting the movement of the moveable structure between the stowed configuration and the operational configuration upon receiving the indication, wherein receiving the indication comprises moving an actuator of a proximity sensor out of contact with a raised surface, the method further comprising: detecting that the actuator is out of contact with the raised surface; and upon detecting that the actuator is out of contact with the raised surface, communicating a signal to a motion controller to halt the movement of the moveable structure between the stowed configuration and the operational configuration. moving a moveable structure between a stowed configuration and an operational configuration; receiving an indication that a protective panel attached to the moveable structure is displaced towards a leading surface of the moveable structure, wherein the leading surface is facing a direction of movement when the moveable structure is moving to the stowed configuration or the operational configuration; and halting the movement of the moveable structure between the stowed configuration and the operational configuration upon receiving the indication, wherein receiving the indication comprises moving an actuator of a proximity sensor out of contact with a raised surface, the method further comprising: detecting that the actuator is out of contact with the raised surface; and upon detecting that the actuator is out of contact with the raised surface, communicating a signal to a motion controller to halt the movement of the moveable structure between the stowed configuration and the operational configuration.
A process to produce a yogurt product containing from 10,000,000 cfu/g to 1,000,000,000 cfu/g of live bacteria or live active cultures, the process comprising: (i) providing a sterilized reduced sugar milk base comprising from 1 to 1.9 wt. % milk sugar; (ii) contacting the sterilized reduced sugar milk base with from 0.0001 to 2 wt. % of a lactic acid bacteria culture and aseptically packaging in a container, wherein the lactic acid bacteria culture comprises Lactobacillus bulgaricus, Streptococcus thermophilus, Lactobacillus acidophillus, or a combination thereof; and (iii) storing under conditions sufficient to reduce the pH of the contents in the container to within a range from 4 to 4.6 to produce the yogurt product. (i) providing a sterilized reduced sugar milk base comprising from 1 to 1.9 wt. % milk sugar; (ii) contacting the sterilized reduced sugar milk base with from 0.0001 to 2 wt. % of a lactic acid bacteria culture and aseptically packaging in a container, wherein the lactic acid bacteria culture comprises Lactobacillus bulgaricus, Streptococcus thermophilus, Lactobacillus acidophillus, or a combination thereof; and (iii) storing under conditions sufficient to reduce the pH of the contents in the container to within a range from 4 to 4.6 to produce the yogurt product.