mhurhangee/ep-ind-claims huggingface dataset:
A SIM card hot plugging protection method, comprising: if it is listened and obtained that a first signal generating switch in a SIM card holder triggers a first active level, generating a power-off control signal according to the first active level, characterized in that the first active level is triggered by touching the first signal generating switch by a SIM card when the SIM card is moved to a first position of the SIM card holder during a process of inserting the SIM card; and performing power-off processing on the SIM card holder according to the power-off control signal; wherein the performing power-off processing on the SIM card holder according to the power-off control signal comprising: performing power-off processing on the SIM card holder according to the power-off control signal by using a preset power-off sequence. if it is listened and obtained that a first signal generating switch in a SIM card holder triggers a first active level, generating a power-off control signal according to the first active level, characterized in that the first active level is triggered by touching the first signal generating switch by a SIM card when the SIM card is moved to a first position of the SIM card holder during a process of inserting the SIM card; and performing power-off processing on the SIM card holder according to the power-off control signal; wherein the performing power-off processing on the SIM card holder according to the power-off control signal comprising: performing power-off processing on the SIM card holder according to the power-off control signal by using a preset power-off sequence.
A power transfer system that transfers inductive power between an industrial vehicle and an attachment for the industrial vehicle, the industrial vehicle having a body and a carriage having a range of motion relative to the body, the power transfer unit comprising: (a) a wireless power transmitter attached to the body and having a first connection capable of receiving power from a power supply on the industrial vehicle; and (b) a wireless power receiver spaced apart from the wireless power transmitter, the wireless power receiver capable of receiving wireless power from the wireless power transmitter and having a connection capable of delivering power to the attachment, characterized in that the wireless power receiver is moveable with the carriage such that wireless power received from the wireless power transmitter does not diminish over the range of motion of the carriage, via a mounting mechanism configured to permit movement of the carriage relative to the industrial vehicle over a preselected distance without concurrent movement of the power receiver relative to the power transmitter. (a) a wireless power transmitter attached to the body and having a first connection capable of receiving power from a power supply on the industrial vehicle; and (b) a wireless power receiver spaced apart from the wireless power transmitter, the wireless power receiver capable of receiving wireless power from the wireless power transmitter and having a connection capable of delivering power to the attachment,
An antenna configured to be arranged on a window glass of a vehicle, the antenna comprising: a planar conductor configured to be arranged on the window glass; a slot formed as a rectangular region obtained by removing a conductor from the planar conductor; an adjustment part being a recess in the planar conductor protruding from a first side of the slot; a power feeding unit including a coaxial connector configured to connect to a power feeding wire, which is a coaxial cable, and the coaxial connector being arranged in the recess; and an element extending from a core-side terminal of the coaxial connector so that the element is connected to a second side of the slot opposite to the first side of the slot, the slot being disposed at a position offset from a center of the planar conductor in a direction toward the first side. a planar conductor configured to be arranged on the window glass; a slot formed as a rectangular region obtained by removing a conductor from the planar conductor; an adjustment part being a recess in the planar conductor protruding from a first side of the slot; a power feeding unit including a coaxial connector configured to connect to a power feeding wire, which is a coaxial cable, and the coaxial connector being arranged in the recess; and an element extending from a core-side terminal of the coaxial connector so that the element is connected to a second side of the slot opposite to the first side of the slot, the slot being disposed at a position offset from a center of the planar conductor in a direction toward the first side.
A method for transmitting feedback information by an access terminal in a wireless packet data communication system supporting a Single-User Multiple Input Multiple Output, MIMO, mode and a Multi-User MIMO mode, the method comprising: receiving information for a default MIMO mode from an access network; estimating (52, 53) a Channel Quality Indicator, CQI, for Single-User MIMO mode and a CQI for Multi-user MIMO mode; determining whether the default MIMO mode is the Single-User MIMO mode or the Multi-User MIMO mode based on the information for the default MIMO mode; setting (55, 56) one of the CQI for the Single-User MIMO mode or the CQI for the Multi-User MIMO mode as a default CQI based on the determined default MIMO mode; and transmitting (55, 56, 57) feedback information on the default CQI and feedback information on a DELTA CQI, wherein the DELTA CQI is a difference between the CQI for the Single-User MIMO mode and the CQI for the Multi-User MIMO mode. receiving information for a default MIMO mode from an access network; estimating (52, 53) a Channel Quality Indicator, CQI, for Single-User MIMO mode and a CQI for Multi-user MIMO mode; determining whether the default MIMO mode is the Single-User MIMO mode or the Multi-User MIMO mode based on the information for the default MIMO mode; setting (55, 56) one of the CQI for the Single-User MIMO mode or the CQI for the Multi-User MIMO mode as a default CQI based on the determined default MIMO mode; and transmitting (55, 56, 57) feedback information on the default CQI and feedback information on a DELTA CQI, wherein the DELTA CQI is a difference between the CQI for the Single-User MIMO mode and the CQI for the Multi-User MIMO mode.
A solenoid flow control valve (100; 200; 300) comprising: a housing including an inlet port and an outlet port, the housing being provided with a pilot pressure chamber therein; an inlet passage that allows the inlet port to communicate with the pilot pressure chamber; an outlet passage that allows the pilot pressure chamber to communicate with the outlet port; a fixed restrictor provided on the outlet passage; a bypass passage that allows the pilot pressure chamber to communicate with the outlet port in a manner to bypass the fixed restrictor; a solenoid; a pilot spool that closes the inlet passage and opens the bypass passage when the solenoid is in a non-excitation state, and opens the inlet passage, generates a pilot pressure in the pilot pressure chamber, and closes the bypass passage when the solenoid is in an excitation state; and a main spool that controls a flow rate from the inlet port to the outlet port in accordance with the pilot pressure in the pilot pressure chamber. a housing including an inlet port and an outlet port, the housing being provided with a pilot pressure chamber therein; an inlet passage that allows the inlet port to communicate with the pilot pressure chamber; an outlet passage that allows the pilot pressure chamber to communicate with the outlet port; a fixed restrictor provided on the outlet passage; a bypass passage that allows the pilot pressure chamber to communicate with the outlet port in a manner to bypass the fixed restrictor; a solenoid; a pilot spool that closes the inlet passage and opens the bypass passage when the solenoid is in a non-excitation state, and opens the inlet passage, generates a pilot pressure in the pilot pressure chamber, and closes the bypass passage when the solenoid is in an excitation state; and a main spool that controls a flow rate from the inlet port to the outlet port in accordance with the pilot pressure in the pilot pressure chamber.
A feeder assembly for use in a feed distribution system having a feed supply conduit, said feeder assembly comprising: a pan member; and a grill member having a rim member which is operatively associated with said pan member, said rim member being generally formed in a shape of at least two intersecting circles, said grill member defining at least one fill port for receiving feed from the feed supply conduit and for providing feed to said pan member. a pan member; and a grill member having a rim member which is operatively associated with said pan member, said rim member being generally formed in a shape of at least two intersecting circles, said grill member defining at least one fill port for receiving feed from the feed supply conduit and for providing feed to said pan member.
A post-harvest monitoring system, comprising a processor and a memory communicably coupled to the processor, the memory storing processor-executable instructions, which instructions, when executed by the processor, cause the processor to perform steps, comprising: receiving sensor device measurements from a plurality of sensors deployed within a commodity storage facility, various ones of said sensors being co-located with portions of a stored commodity in the storage facility, said sensor device measurements including temperature, relative humidity, air flow, and gas concentration within the commodity storage facility and being received as time-course data streams; determining a safe storage time for said stored commodity within said commodity storage facility using a numerical model combined with said sensor device measurements, said numerical model adapted to treat walls of said commodity storage facility as a porous medium, further adapted to create a coupled system in terms of intergranular air velocity, temperature, grain moisture content, oxygen and carbon dioxide concentrations, and further adapted to incorporate an air flow component using the Navier-Stokes equation; and presenting, as a user interface screen for the post-harvest monitoring system on a display communicably coupled to the processor, said determined safe storage time for said stored commodity along with a representation of the storage facility to include some or all of air flow, temperature, or moisture content within the storage facility and/or the stored commodity, and stored commodity quality metrics predictions and/or stored commodity business metrics predictions. receiving sensor device measurements from a plurality of sensors deployed within a commodity storage facility, various ones of said sensors being co-located with portions of a stored commodity in the storage facility, said sensor device measurements including temperature, relative humidity, air flow, and gas concentration within the commodity storage facility and being received as time-course data streams; determining a safe storage time for said stored commodity within said commodity storage facility using a numerical model combined with said sensor device measurements, said numerical model adapted to treat walls of said commodity storage facility as a porous medium, further adapted to create a coupled system in terms of intergranular air velocity, temperature, grain moisture content, oxygen and carbon dioxide concentrations, and further adapted to incorporate an air flow component using the Navier-Stokes equation; and presenting, as a user interface screen for the post-harvest monitoring system on a display communicably coupled to the processor, said determined safe storage time for said stored commodity along with a representation of the storage facility to include some or all of air flow, temperature, or moisture content within the storage facility and/or the stored commodity, and stored commodity quality metrics predictions and/or stored commodity business metrics predictions.
Thermocompensated mechanical resonator including a strip wound around itself to form at least one coil and is coupled to an inertia fly wheel, said strip having a core, which is of polygonal section, includes single crystal silicon, characterized in that the core includes, on at least one of the faces thereof, a coating (b 1, b 3, h 1, h 3) for making said resonator less sensitive to temperature variations, and at least one other face has no coating.
A sampling device for measuring a time resolved analog signal from a detector, the sampling device comprising: a detector module for measuring a fluorescence lifetime or photon migration signal response from a sample in response to illumination with light from a light source, the detector module generating the analog signal; sampling clock generation means for generating a sampling clock from a pulsed or modulated reference signal derived from the light of the light source; an analog to digital converter for sampling the analog signal received from the detector module and converting the analog signal into a digital signal, a sampling rate of the analog to digital converter being clocked using the sampling clock at a rate faster than an operating frequency of the light source; a logic circuit coupled to the analog to digital converter for performing a Fourier transform of the digital signal for analyzing the digital signal from the analog to digital converter in a frequency domain to generate and continuously transfer processed time resolved digital data signals for the sample; and a memory device for buffering the processed time resolved digital data signals generated by the logic circuit, the memory device being connected to a computer to further analyze and store the processed time resolved digital data signals. a detector module for measuring a fluorescence lifetime or photon migration signal response from a sample in response to illumination with light from a light source, the detector module generating the analog signal; sampling clock generation means for generating a sampling clock from a pulsed or modulated reference signal derived from the light of the light source; an analog to digital converter for sampling the analog signal received from the detector module and converting the analog signal into a digital signal, a sampling rate of the analog to digital converter being clocked using the sampling clock at a rate faster than an operating frequency of the light source; a logic circuit coupled to the analog to digital converter for performing a Fourier transform of the digital signal for analyzing the digital signal from the analog to digital converter in a frequency domain to generate and continuously transfer processed time resolved digital data signals for the sample; and a memory device for buffering the processed time resolved digital data signals generated by the logic circuit, the memory device being connected to a computer to further analyze and store the processed time resolved digital data signals.
A bypass system for respiratory therapy and anaesthesia comprising: a) a first bypass conduit for receiving a gas flow and for receiving a filtration device; b) an activation means for redirecting the gas flow within the first bypass conduit; c) a second bypass conduit for receiving the gas flow from the first bypass conduit and the filtration device; d) a passive control thermo plastic valve within the second bypass conduit to redirect air flow within the second bypass conduit; e) a conduit interconnected to the first and second bypass conduit for providing a passage of gases between the first and second bypass conduit when activated by the activation means; and, Wherein the activation means is activated when the first bypass conduit is not connected to a filtration device. a) a first bypass conduit for receiving a gas flow and for receiving a filtration device; b) an activation means for redirecting the gas flow within the first bypass conduit; c) a second bypass conduit for receiving the gas flow from the first bypass conduit and the filtration device; d) a passive control thermo plastic valve within the second bypass conduit to redirect air flow within the second bypass conduit; e) a conduit interconnected to the first and second bypass conduit for providing a passage of gases between the first and second bypass conduit when activated by the activation means; and,
Dispensing device for holding, presenting and removing baked bakery goods, with at least one dispensing tray, wherein the at least one dispensing tray comprises: - a supply section which allows the supply of the at least one dispensing tray with bakery goods, - a removal section for removing the bakery goods, - a transport surface arranged between the supply section and the removal section on which the bakery goods arrive from the supply section at the removal section, and - a measuring device, wherein the bakery goods pass the measuring device on their way from the supply section to the removal section, wherein the measuring device registers the presence of these bakery goods and/or the absence of bakery goods and generates corresponding electrical signals, characterized in that the measuring device comprises a measuring surface in the region of the transport surface and a force transducer, in particular a force sensor, coupled to the measuring surface, wherein the bakery goods, on their way from the supply section to the removal section, temporarily rest on the measuring surface or slide over the measuring surface, wherein the force transducer generates said electrical signals. - a supply section which allows the supply of the at least one dispensing tray with bakery goods, - a removal section for removing the bakery goods, - a transport surface arranged between the supply section and the removal section on which the bakery goods arrive from the supply section at the removal section, and - a measuring device, wherein the bakery goods pass the measuring device on their way from the supply section to the removal section, wherein the measuring device registers the presence of these bakery goods and/or the absence of bakery goods and generates corresponding electrical signals, characterized in that the measuring device comprises a measuring surface in the region of the transport surface and a force transducer, in particular a force sensor, coupled to the measuring surface, wherein the bakery goods, on their way from the supply section to the removal section, temporarily rest on the measuring surface or slide over the measuring surface, wherein the force transducer generates said electrical signals.
A wireless networking method, comprising the steps of: placing a master device and at least one peripheral device (24 a-c) within proximity of each other; and implementing a standard pairing process between the master device and the at least one peripheral device (24 a-c); characterized by: transmitting a radio frequency request for proximity pairing from one of the peripheral device (24 a-c) and the master device to the other of the peripheral device (24 a-c) and master device after the standard pairing process; transmitting radio frequency proximity pairing signals implementing the proximity pairing from the master device to the peripheral device (24 a-c), the proximity pairing signals being transmitted with a first level of transmission power, the first level of transmission power being less than a second level of transmission power used during the standard pairing process; identifying a signal strength of the proximity pairing signals; and disconnecting a connection established in the standard pairing process based on the signal strength of the proximity pairing signals being less than a predetermined threshold signal strength. placing a master device and at least one peripheral device (24 a-c) within proximity of each other; and implementing a standard pairing process between the master device and the at least one peripheral device (24 a-c); characterized by: transmitting a radio frequency request for proximity pairing from one of the peripheral device (24 a-c) and the master device to the other of the peripheral device (24 a-c) and master device after the standard pairing process; transmitting radio frequency proximity pairing signals implementing the proximity pairing from the master device to the peripheral device (24 a-c), the proximity pairing signals being transmitted with a first level of transmission power, the first level of transmission power being less than a second level of transmission power used during the standard pairing process; identifying a signal strength of the proximity pairing signals; and disconnecting a connection established in the standard pairing process based on the signal strength of the proximity pairing signals being less than a predetermined threshold signal strength. transmitting a radio frequency request for proximity pairing from one of the peripheral device (24 a-c) and the master device to the other of the peripheral device (24 a-c) and master device after the standard pairing process; transmitting radio frequency proximity pairing signals implementing the proximity pairing from the master device to the peripheral device (24 a-c), the proximity pairing signals being transmitted with a first level of transmission power, the first level of transmission power being less than a second level of transmission power used during the standard pairing process; identifying a signal strength of the proximity pairing signals; and disconnecting a connection established in the standard pairing process based on the signal strength of the proximity pairing signals being less than a predetermined threshold signal strength.