mhurhangee/ep-ind-claims huggingface dataset:
A diagnostic test kit for detecting the presence or quantity of a test analyte within a test sample, the diagnostic test kit comprising: a lateral flow assay device comprising a porous membrane, the porous membrane defining a detection zone and a calibration zone, wherein a first receptive material is immobilized within the detection zone and a second receptive material is immobilized within the calibration zone; and a plurality of assay reagents disposed on the lateral flow assay device, wherein the assay reagents comprise a calibration analyte, wherein the calibration analyte and the test analyte are members of the same protein family, detection probes, and calibration probes, the detection probes being conjugated with a first specific binding member configured to preferentially bind to the test analyte and the calibration probes being conjugated with a second specific binding member configured to preferentially bind to the calibration analyte, the first receptive material being configured to bind to the test analyte to form a sandwich complex, and the second receptive material being configured to bind to the calibration analyte to form a sandwich complex; and the detection zone being capable of producing a detection signal and the calibration zone being capable of producing a calibration signal, the amount of the test analyte being directly proportional to the intensity of the detection signal as calibrated by the intensity of the calibration signal. a lateral flow assay device comprising a porous membrane, the porous membrane defining a detection zone and a calibration zone, wherein a first receptive material is immobilized within the detection zone and a second receptive material is immobilized within the calibration zone; and a plurality of assay reagents disposed on the lateral flow assay device, wherein the assay reagents comprise a calibration analyte, wherein the calibration analyte and the test analyte are members of the same protein family, detection probes, and calibration probes, the detection probes being conjugated with a first specific binding member configured to preferentially bind to the test analyte and the calibration probes being conjugated with a second specific binding member configured to preferentially bind to the calibration analyte, the first receptive material being configured to bind to the test analyte to form a sandwich complex, and the second receptive material being configured to bind to the calibration analyte to form a sandwich complex; and the detection zone being capable of producing a detection signal and the calibration zone being capable of producing a calibration signal, the amount of the test analyte being directly proportional to the intensity of the detection signal as calibrated by the intensity of the calibration signal.
A packet forwarding loop control method in a virtual network device comprising (i) a plurality of core backbone, CB, devices, wherein the CB devices are network devices which capable executing forwarding logic and are serially connected via cascaded ports in a ring topology wherein one of the CB devices is a master device to control the operations of the virtual network device; and (ii) a plurality of port extender, PE, devices which are configured to operate as remote interface boards for providing more ports, the method comprising: determining, on a first CB device, a candidate CB set which comprises the plurality of CB devices corresponding to a PE device using a predetermined first selection rule; and upon determining the first CB device belongs to the candidate CB set, configuring first blocking entries corresponding to the respective PE device on the first CB device, wherein the first blocking entries are for preventing the receiver-uncertain packets sent from the respective PE device being forwarded via designated cascaded ports connecting the CB devices. determining, on a first CB device, a candidate CB set which comprises the plurality of CB devices corresponding to a PE device using a predetermined first selection rule; and upon determining the first CB device belongs to the candidate CB set, configuring first blocking entries corresponding to the respective PE device on the first CB device, wherein the first blocking entries are for preventing the receiver-uncertain packets sent from the respective PE device being forwarded via designated cascaded ports connecting the CB devices.
A semiconductor device comprising: first and second terminals which serve as external terminals of a semiconductor chip, the first terminal being a grounding terminal, the second terminal being a power source terminal; an electrostatic destruction protection transistor, being an N-type MOS transistor, whose source is coupled to the first terminal and whose drain is coupled to the second terminal; a single PN diode which is coupled between a back gate of the electrostatic destruction protection transistor and the first terminal, the back gate being coupled with a cathode of the PN diode; and an RC circuit coupled to the first terminal and the second terminal, the RC circuit comprising a resistor and a capacitor, wherein the resistor is coupled to the first terminal at one end, and is coupled to a gate and to the back gate of the electrostatic destruction protection transistor at the other end, the resistor being coupled in parallel with the PN diode, the capacitor is coupled to the gate of the electrostatic destruction protection transistor at one end, and is coupled to the second terminal at the other end, and the PN diode is arranged that a polarity thereof which occurs in a coupling direction is reversed to the polarity of a parasitic diode which is formed between the back gate and the source of the electrostatic destruction protection transistor. first and second terminals which serve as external terminals of a semiconductor chip, the first terminal being a grounding terminal, the second terminal being a power source terminal; an electrostatic destruction protection transistor, being an N-type MOS transistor, whose source is coupled to the first terminal and whose drain is coupled to the second terminal; a single PN diode which is coupled between a back gate of the electrostatic destruction protection transistor and the first terminal, the back gate being coupled with a cathode of the PN diode; and an RC circuit coupled to the first terminal and the second terminal, the RC circuit comprising a resistor and a capacitor, wherein the resistor is coupled to the first terminal at one end, and is coupled to a gate and to the back gate of the electrostatic destruction protection transistor at the other end, the resistor being coupled in parallel with the PN diode, the capacitor is coupled to the gate of the electrostatic destruction protection transistor at one end, and is coupled to the second terminal at the other end, and the PN diode is arranged that a polarity thereof which occurs in a coupling direction is reversed to the polarity of a parasitic diode which is formed between the back gate and the source of the electrostatic destruction protection transistor.
Electrical appliance comprising an electrical device and comprising at least one battery receiving compartment (30, 31) into which a battery is insertable and to which is associated a locking device for locking the battery in the battery receiving compartment, wherein the locking device comprises a locking member, which is pivotable about a pivot axis back and forth between a locking position and a release position and which comprises a locking element, which in the locking position projects into the battery receiving compartment and in the release position unblocks the battery receiving compartment, wherein the locking member is biased into the locking position by means of a spring element, characterized in that the locking member comprises a first bearing pin and a second bearing pin, which point away from one another and are oriented coaxially to the pivot axis, wherein the first bearing pin dips into a bearing ring, which surrounds the first bearing pin in the circumferential direction, and wherein the second bearing pin passes through a first bearing pin receptacle, which partially surrounds the second bearing pin in the circumferential direction.
Method of manufacturing a vertical Positive-Intrinsic-Negative diode, comprising: • providing an epitaxial wafer comprising a vertically stacked N-type layer, an intrinsic layer and a P-type layer; • forming an anode contact of the vertical Positive-Intrinsic-Negative diode by forming an anode metallization on a first portion of the P-type layer defining an anode region; • forming an electrically insulating layer around the anode region such that a first portion of the intrinsic layer extends vertically between the N-type layer and the anode region and second portions of the intrinsic layer extend vertically between the N-type layer and the electrically insulating layer; • forming a trench in the electrically insulating layer and in the second portions of the intrinsic layer so as to expose a portion of the N-type layer defining a cathode region and to define a sacrificial side-guard ring constituted by a portion of the electrically insulating layer that extends laterally between the trench and the anode region and laterally surrounds said anode region; and • forming a cathode contact of the vertical Positive-Intrinsic-Negative diode by forming a cathode metallization on the exposed portion of the N-type layer defining the cathode region. • providing an epitaxial wafer comprising a vertically stacked N-type layer, an intrinsic layer and a P-type layer; • forming an anode contact of the vertical Positive-Intrinsic-Negative diode by forming an anode metallization on a first portion of the P-type layer defining an anode region; • forming an electrically insulating layer around the anode region such that a first portion of the intrinsic layer extends vertically between the N-type layer and the anode region and second portions of the intrinsic layer extend vertically between the N-type layer and the electrically insulating layer; • forming a trench in the electrically insulating layer and in the second portions of the intrinsic layer so as to expose a portion of the N-type layer defining a cathode region and to define a sacrificial side-guard ring constituted by a portion of the electrically insulating layer that extends laterally between the trench and the anode region and laterally surrounds said anode region; and • forming a cathode contact of the vertical Positive-Intrinsic-Negative diode by forming a cathode metallization on the exposed portion of the N-type layer defining the cathode region.
A refrigerator unit and/or freezer unit having a cooling tank (2 and an evaporator that is accommodated in an evaporator accommodation space in the cooling tank, wherein the evaporator has a multi-sided jacket composed of a soft, elastic and/or yielding padding material, characterized in that the jacket comprises an elastic and yielding foam and is provided on all contact sides of the evaporator with which the evaporator comes into contact with the walls of the evaporator accommodation space.
A device (10, 210) for growing plants vertically, comprising: a panel assembly (12, 212) oriented vertically comprising: a support panel (14, 214) having a front face and a back face; at least one nutrient flow channel supported on the back face of the support panel (14, 214) and providing a nutrient flow passage extending from an inlet (32, 232) at an upper region to an outlet (34, 234) at a lower region of the support panel (14, 214); a front panel (22, 222) fastened to the front face of the support panel (14, 214) to form a grow pocket (40, 240), the grow pocket (40, 240) comprising a region within one or more bond lines fastening the front panel (22, 222) and the support panel (14, 214) together, the grow pocket (40, 240) being in alignment with the nutrient flow channel, the grow pocket (40, 240) having a plant access opening (42, 242); at least one fluid aperture in the support panel (14, 214), the fluid aperture being disposed at a lower region of the grow pocket (40, 240) for fluid communication between an interior of the grow pocket (40, 240) and the nutrient flow passage, the one or more bond lines of the grow pocket (40, 240) being tapered from the plant access opening (42, 242) to a narrower closed bottom below the fluid aperture, and a back panel (24, 224) fastened to the back face of the support panel (14, 214) along bond lines to form the nutrient flow channel, said bond lines being angled at locations to direct a nutrient solution in the nutrient flow channel to the fluid aperture. a support panel (14, 214) having a front face and a back face; at least one nutrient flow channel supported on the back face of the support panel (14, 214) and providing a nutrient flow passage extending from an inlet (32, 232) at an upper region to an outlet (34, 234) at a lower region of the support panel (14, 214); a front panel (22, 222) fastened to the front face of the support panel (14, 214) to form a grow pocket (40, 240), the grow pocket (40, 240) comprising a region within one or more bond lines fastening the front panel (22, 222) and the support panel (14, 214) together, the grow pocket (40, 240) being in alignment with the nutrient flow channel, the grow pocket (40, 240) having a plant access opening (42, 242); at least one fluid aperture in the support panel (14, 214), the fluid aperture being disposed at a lower region of the grow pocket (40, 240) for fluid communication between an interior of the grow pocket (40, 240) and the nutrient flow passage, the one or more bond lines of the grow pocket (40, 240) being tapered from the plant access opening (42, 242) to a narrower closed bottom below the fluid aperture, and a back panel (24, 224) fastened to the back face of the support panel (14, 214) along bond lines to form the nutrient flow channel, said bond lines being angled at locations to direct a nutrient solution in the nutrient flow channel to the fluid aperture.
A printing system, comprising: a print process device operable to interface between a client system and a physical printer to process a print job and an associated job ticket in a print data stream from the client system for printing on the physical printer, wherein the job ticket comprises printing parameters operable to print one or more documents of the print job on the physical printer; characterised in that the print process device comprises: a database operable to: store the job ticket, to parse fields in the job ticket to determine whether there is a missing value in at least one of the fields of the job ticket; and in the event that a missing value is identified, to determine whether the job ticket source, determined by the print process device, permits missing values within the job ticket; wherein in the event that there is a missing value in at least one of the fields of the job ticket and it is determined that the job ticket source permits missing values within the job ticket, the print process device is operable to process the print job with the job ticket as is; otherwise, the database is configured to determine whether the field in which the value is missing is nullable and if so to replace the missing value of the job ticket with a null value. a print process device operable to interface between a client system and a physical printer to process a print job and an associated job ticket in a print data stream from the client system for printing on the physical printer, wherein the job ticket comprises printing parameters operable to print one or more documents of the print job on the physical printer; characterised in that the print process device comprises: a database operable to: store the job ticket, to parse fields in the job ticket to determine whether there is a missing value in at least one of the fields of the job ticket; and in the event that a missing value is identified, to determine whether the job ticket source, determined by the print process device, permits missing values within the job ticket; store the job ticket, to parse fields in the job ticket to determine whether there is a missing value in at least one of the fields of the job ticket; and in the event that a missing value is identified, to determine whether the job ticket source, determined by the print process device, permits missing values within the job ticket; wherein in the event that there is a missing value in at least one of the fields of the job ticket and it is determined that the job ticket source permits missing values within the job ticket, the print process device is operable to process the print job with the job ticket as is; otherwise, the database is configured to determine whether the field in which the value is missing is nullable and if so to replace the missing value of the job ticket with a null value.
A vehicle system comprising: a buckle switch device configured to turn on or off depending on whether a vehicle seat belt buckle is fastened; and a buckle detection apparatus configured to determine whether the vehicle seat belt buckle is fastened based on an on or off operation of the buckle switch device and to diagnose a failure of the buckle detection apparatus, wherein the buckle detection apparatus includes: a monitoring device configured to measure a current flowing toward the buckle switch device and a voltage; and a processor configured to determine whether the vehicle seat belt buckle is fastened by using the current and the voltage measured by the monitoring device and to perform a failure diagnosis, further comprising: a first resistor provided between the processor and the buckle switch device; and a capacitor provided between a terminal of the first resistor and a ground voltage terminal, and wherein the monitoring device is configured to monitor a voltage applied to a second node between a first node and a second resistor included in the buckle switch device. a buckle switch device configured to turn on or off depending on whether a vehicle seat belt buckle is fastened; and a buckle detection apparatus configured to determine whether the vehicle seat belt buckle is fastened based on an on or off operation of the buckle switch device and to diagnose a failure of the buckle detection apparatus, wherein the buckle detection apparatus includes: a monitoring device configured to measure a current flowing toward the buckle switch device and a voltage; and a processor configured to determine whether the vehicle seat belt buckle is fastened by using the current and the voltage measured by the monitoring device and to perform a failure diagnosis, a monitoring device configured to measure a current flowing toward the buckle switch device and a voltage; and a processor configured to determine whether the vehicle seat belt buckle is fastened by using the current and the voltage measured by the monitoring device and to perform a failure diagnosis, further comprising: a first resistor provided between the processor and the buckle switch device; and a capacitor provided between a terminal of the first resistor and a ground voltage terminal, and wherein the monitoring device is configured to monitor a voltage applied to a second node between a first node and a second resistor included in the buckle switch device. a first resistor provided between the processor and the buckle switch device; and a capacitor provided between a terminal of the first resistor and a ground voltage terminal, and wherein the monitoring device is configured to monitor a voltage applied to a second node between a first node and a second resistor included in the buckle switch device.
A distributed fuel module, comprising: a fuel pressure vessel with a gas port and a fuel port; a hydraulic circuit breaker connected to the fuel port, the hydraulic circuit breaker being configured to be connected to a fuel header; and a gaseous circuit breaker connected to the gas port and fluidly coupled with the hydraulic circuit breaker through the fuel pressure vessel, the gaseous circuit breaker being configured to be connected to a compressed gas header; wherein the hydraulic circuit breaker is cooperatively associated with the gaseous circuit breaker to isolate the fuel pressure vessel from the compressed gas header and the fuel header according to a pressure differential within the hydraulic circuit breaker and a pressure differential within the gaseous circuit breaker. a fuel pressure vessel with a gas port and a fuel port; a hydraulic circuit breaker connected to the fuel port, the hydraulic circuit breaker being configured to be connected to a fuel header; and a gaseous circuit breaker connected to the gas port and fluidly coupled with the hydraulic circuit breaker through the fuel pressure vessel, the gaseous circuit breaker being configured to be connected to a compressed gas header; wherein the hydraulic circuit breaker is cooperatively associated with the gaseous circuit breaker to isolate the fuel pressure vessel from the compressed gas header and the fuel header according to a pressure differential within the hydraulic circuit breaker and a pressure differential within the gaseous circuit breaker.
An electronic device comprising: a housing; a first plate positioned on a front surface of the housing; a second plate (480, 680) positioned on a rear surface of the housing; an antenna radiator interposed between the first plate and the second plate; and a wireless communication circuit (450, 650) connected to the antenna radiator and configured to process a signal in a specific frequency band, wherein the antenna radiator includes at least one conductive fabric layer, a conductive coating layer, and a primer coating layer, wherein threads included in the fabric layer are alternatingly plated with a plurality of metals such that the at least one conductive fabric layer has resistance characteristics suitable for transmitting or receiving the signal in the specific frequency band, wherein the conductive coating layer is configured to prevent corrosion of the at least one conductive fabric layer and transmit the signal in the specific frequency band to the at least one conductive fabric layer, and wherein the primer coating layer is configured to prevent damage to the antenna radiator by the second plate of the electronic device, wherein the conductive coating layer is interposed between the primer coating layer and the at least one conductive fabric layer, and wherein the primer coating layer includes conductive powder so as to be conductive to transmit the signal in the specific frequency band to the conductive coating layer. a housing; a first plate positioned on a front surface of the housing; a second plate (480, 680) positioned on a rear surface of the housing; an antenna radiator interposed between the first plate and the second plate; and a wireless communication circuit (450, 650) connected to the antenna radiator and configured to process a signal in a specific frequency band, wherein the antenna radiator includes at least one conductive fabric layer, a conductive coating layer, and a primer coating layer, wherein threads included in the fabric layer are alternatingly plated with a plurality of metals such that the at least one conductive fabric layer has resistance characteristics suitable for transmitting or receiving the signal in the specific frequency band, wherein the conductive coating layer is configured to prevent corrosion of the at least one conductive fabric layer and transmit the signal in the specific frequency band to the at least one conductive fabric layer, and wherein the primer coating layer is configured to prevent damage to the antenna radiator by the second plate of the electronic device, wherein the conductive coating layer is interposed between the primer coating layer and the at least one conductive fabric layer, and wherein the primer coating layer includes conductive powder so as to be conductive to transmit the signal in the specific frequency band to the conductive coating layer.