mhurhangee/patent-ind-claim-en huggingface dataset:
A pest station for trapping a target species, comprising: a chamber , and a non-target species barrier adapted to prevent ingress of non-target species to a pest station by having sufficient strength to prevent a non-target species from breaching the barrier, the pest station being configured to retain the non-target species barrier , positioned so as to prevent ingress of non-target species to the chamber ; wherein the non-target species barrier is formed of cardboard, fabric or plastic, wherein the non-target species barrier comprising a plurality of apertures , wherein the apertures are sized such that the non-target species and a target species cannot pass therethrough, wherein the non-target species barrier is adapted to allow formation of an aperture therein by chewing, gnawing and/or scratching of a target species, so as to allow ingress of the target species to the pest station , and wherein the target species is a rodent, characterised in that : the pest station further comprises a retaining portion configured to retain the non-target species barrier , wherein the retaining portion comprises a plurality of slots, each slot being arranged to retain a respective edge of the non-target species barrier ; and a lid hingedly attached to the pest station ; wherein the non-target species barrier is a sheet slidably attachable to the retaining portion. a chamber , and a non-target species barrier adapted to prevent ingress of non-target species to a pest station by having sufficient strength to prevent a non-target species from breaching the barrier, the pest station being configured to retain the non-target species barrier , positioned so as to prevent ingress of non-target species to the chamber ; wherein the non-target species barrier is formed of cardboard, fabric or plastic, wherein the non-target species barrier comprising a plurality of apertures , wherein the apertures are sized such that the non-target species and a target species cannot pass therethrough, wherein the non-target species barrier is adapted to allow formation of an aperture therein by chewing, gnawing and/or scratching of a target species, so as to allow ingress of the target species to the pest station , and wherein the target species is a rodent, characterised in that : the pest station further comprises a retaining portion configured to retain the non-target species barrier , wherein the retaining portion comprises a plurality of slots, each slot being arranged to retain a respective edge of the non-target species barrier ; and a lid hingedly attached to the pest station ; the pest station further comprises a retaining portion configured to retain the non-target species barrier , wherein the retaining portion comprises a plurality of slots, each slot being arranged to retain a respective edge of the non-target species barrier ; and a lid hingedly attached to the pest station ; wherein the non-target species barrier is a sheet slidably attachable to the retaining portion.
An thermopuncture stent implantation device, wherein the thermopuncture stent implantation device has a proximal end and a distal end, a front handle , a rear handle , the distal end of the front handle is provided with an outer tube , the outer tube extends from the proximal end to the distal end, an outer diameter of the distal end of the outer tube is less than or equal to 3.15 mm, an insulating middle tube is provided in the outer tube , the insulating middle tube extends from the proximal end to the distal end, a conductive part is provided in the insulating middle tube , the conductive part extends from the proximal end to the distal end, a terminal of the proximal end of the conductive part can be connected to an external power source; a boosting tube is provided between the proximal end of the outer tube and the insulating middle tube , the distal end of the boosting tube and the proximal end of the insulating middle tube are connected with each other; the distal end of the conductive part is provided with an insulating part , a conductive head is distributed on the insulating part , and the conductive head is connected with the conductive part to achieve a conductive function, and the conductive part also has a function of supporting a stent; when the stent is compressed, it is located in a space between the distal end of the conductive part and the outer tube , the front handle is connected to the proximal end of outer tube , and is moved backwards along the boosting tube , to drive the outer tube to move backwards to release the stent; the conductive part is a hollow tubular conductive part, or a conductive wire; and the boosting tube extends towards the proximal end and is connected with the rear handle , and a positioning part is provided between the front handle and the rear handle . the conductive part is a hollow tubular conductive part, or a conductive wire; and the boosting tube extends towards the proximal end and is connected with the rear handle , and a positioning part is provided between the front handle and the rear handle .
A soil sensing system (500; 1200) comprising: an agricultural implement (200; 1240); and at least one sensor disposed on the agricultural implement (200; 1240), the sensor generating an electromagnetic field through a region of soil of interest as the agricultural implement traverses a field, wherein the sensor comprises at least one radar transmitter (T, T1, T2, T3) and at least one radar receiver (R, R1, R2, R3) or a transceiver (T, T1, T2, T3, R, R1, R2, R3) and the sensor measures a soil dielectric constant of the region of soil of interest, wherein the implement comprises one of a tractor, a planter, a seeder, a tillage tool, a combine, a sprayer, and an agricultural toolbar, characterized in the sensor to measure or calculate at least one of a magnitude of the density layer differences and a rate of change of the soil density layer changes. an agricultural implement (200; 1240); and at least one sensor disposed on the agricultural implement (200; 1240), the sensor generating an electromagnetic field through a region of soil of interest as the agricultural implement traverses a field, wherein the sensor comprises at least one radar transmitter (T, T1, T2, T3) and at least one radar receiver (R, R1, R2, R3) or a transceiver (T, T1, T2, T3, R, R1, R2, R3) and the sensor measures a soil dielectric constant of the region of soil of interest, wherein the implement comprises one of a tractor, a planter, a seeder, a tillage tool, a combine, a sprayer, and an agricultural toolbar, characterized in the sensor to measure or calculate at least one of a magnitude of the density layer differences and a rate of change of the soil density layer changes.
Arc fault detection device (AFD) for an electrical three-phase AC circuit, wherein the three-phase AC circuit has three phase conductors (L1, L2, L3) and a neutral conductor (N), the arc fault detection device (AFD) having - a respective connection for each of the three phase conductors (L1, L2, L3) and a connection for guiding the neutral conductor (N) through the arc fault detection device (AFD), - a sensor unit which is assigned to the three phase conductors and to the neutral conductor (N) and is intended to capture current variables and voltage variables of the three-phase AC circuit, wherein the sensor unit captures current variables and voltage variables of the neutral conductor (N), - a control unit (SE) which is connected to the sensor unit and is intended to evaluate the electrical variables and determine a series or/and parallel arcing fault and to output an arcing fault detection signal for the purpose of interrupting the electrical three-phase AC circuit, characterized in that the control unit (SE) has an arcing fault detection function (AFA) for determining the fault type and the fault location of any series and/or parallel arcing faults from the determined current and voltage variables, - wherein the control unit (SE) is configured to assign the fault type and the fault location to a single code number for an arcing fault, - a display unit (AE) which is configured such that, if an arcing fault has occurred, the fault type and a phase reference and/or a neutral conductor reference of the arcing fault that has occurred are displayed by means of the assigned code number. - a respective connection for each of the three phase conductors (L1, L2, L3) and a connection for guiding the neutral conductor (N) through the arc fault detection device (AFD), - a sensor unit which is assigned to the three phase conductors and to the neutral conductor (N) and is intended to capture current variables and voltage variables of the three-phase AC circuit, wherein the sensor unit captures current variables and voltage variables of the neutral conductor (N), - a control unit (SE) which is connected to the sensor unit and is intended to evaluate the electrical variables and determine a series or/and parallel arcing fault and to output an arcing fault detection signal for the purpose of interrupting the electrical three-phase AC circuit, characterized in that the control unit (SE) has an arcing fault detection function (AFA) for determining the fault type and the fault location of any series and/or parallel arcing faults from the determined current and voltage variables, - wherein the control unit (SE) is configured to assign the fault type and the fault location to a single code number for an arcing fault, - a display unit (AE) which is configured such that, if an arcing fault has occurred, the fault type and a phase reference and/or a neutral conductor reference of the arcing fault that has occurred are displayed by means of the assigned code number.
A scanning system for the inspection of cargo, comprising: a drive-through portal defining an inspection area, said portal comprising a first vertical side , a second vertical side , a top horizontal side , and a horizontal base defined by a ramp adapted to be driven over by a vehicle ; a first X-ray source disposed on at least one of the first vertical side, second vertical side or top horizontal side for generating an X-ray beam into the inspection area toward the vehicle; a first set of transmission detectors disposed within the portal for receiving the X-rays transmitted through the vehicle; and characterized in that the system further comprises: a second X-ray source disposed within the ramp of said portal for generating an X-ray beam towards the underside of the vehicle; and a second set of detectors disposed within the ramp of said portal for receiving X-rays that are backscattered from the vehicle. a drive-through portal defining an inspection area, said portal comprising a first vertical side , a second vertical side , a top horizontal side , and a horizontal base defined by a ramp adapted to be driven over by a vehicle ; a first X-ray source disposed on at least one of the first vertical side, second vertical side or top horizontal side for generating an X-ray beam into the inspection area toward the vehicle; a first set of transmission detectors disposed within the portal for receiving the X-rays transmitted through the vehicle; and characterized in that the system further comprises: a second X-ray source disposed within the ramp of said portal for generating an X-ray beam towards the underside of the vehicle; and a second set of detectors disposed within the ramp of said portal for receiving X-rays that are backscattered from the vehicle. a second X-ray source disposed within the ramp of said portal for generating an X-ray beam towards the underside of the vehicle; and a second set of detectors disposed within the ramp of said portal for receiving X-rays that are backscattered from the vehicle.
A server for hosting kernel isolated containers within a virtual machine, comprising: at least one physical processor; at least one physical computer memory storing executable code for execution by the at least one physical processor, the executable code providing a host virtual machine including a kernel and at least one kernel isolated container within the host virtual machine, the kernel isolated container including a copy of the kernel and having memory assigned directly to the kernel isolated container ; and a physical network interface controller, NIC, including a first physical NIC switch configured to distribute incoming data packets to a first plurality of functions, wherein the first plurality of functions includes a peripheral component interconnect express, PCIe, physical function and single root input-output virtual, SR-IOV, functions, at least one of the virtual functions assigned to the host virtual machine, the physical NIC further includes a second physical NIC switch configured to distribute the incoming data packets for the host virtual machine to a second plurality of virtual functions, wherein a respective virtual function of the second plurality of virtual functions is assigned to an individual kernel isolated container of the at least one kernel isolated container within the host virtual machine. at least one physical processor; at least one physical computer memory storing executable code for execution by the at least one physical processor, the executable code providing a host virtual machine including a kernel and at least one kernel isolated container within the host virtual machine, the kernel isolated container including a copy of the kernel and having memory assigned directly to the kernel isolated container ; and a physical network interface controller, NIC, including a first physical NIC switch configured to distribute incoming data packets to a first plurality of functions, wherein the first plurality of functions includes a peripheral component interconnect express, PCIe, physical function and single root input-output virtual, SR-IOV, functions, at least one of the virtual functions assigned to the host virtual machine, the physical NIC further includes a second physical NIC switch configured to distribute the incoming data packets for the host virtual machine to a second plurality of virtual functions, wherein a respective virtual function of the second plurality of virtual functions is assigned to an individual kernel isolated container of the at least one kernel isolated container within the host virtual machine.
A personal care product stand comprising: a base having a resting plane , a center axis and a top surface defining a handle receiving portion configured to hold a handle , the base defining a cavity ; and at least one permanent docking magnet positioned within the cavity at least 10 mm from the center axis of the base , characterised in that the at least one permanent docking magnet has a slanted end face directly contacting an underside surface directly below the handle receiving portion . a base having a resting plane , a center axis and a top surface defining a handle receiving portion configured to hold a handle , the base defining a cavity ; and at least one permanent docking magnet positioned within the cavity at least 10 mm from the center axis of the base , characterised in that the at least one permanent docking magnet has a slanted end face directly contacting an underside surface directly below the handle receiving portion .
A valve for a faucet assembly comprising a bonnet of tubular shape having a pair of diametrically disposed openings in a periphery thereof; a first valve body coaxially disposed in said bonnet in stationary relation thereto, said valve body defining a pair of diametrically disposed passages therein for passage of water therethrough from a source of water, a second valve body coaxially disposed in said bonnet in contact with said first valve body , said second valve body defining a pair of passages communicating with said openings in said bonnet ; a stem rotatably mounted in and projecting from said bonnet , said stem being operatively connected to said second valve body for rotating said second valve body between a first position with said pair of passages therein aligned with said diametrically disposed passages in said first valve body to allow water from the source of water to flow through said first valve body and through said openings in said bonnet and a second position with said pair of passages therein out of alignment with said diametrically disposed passages in said first valve body to block a flow of water from the source of water from flowing through said first valve body and characterized in having a spiral retaining ring biasing said first valve body into contact with said second valve body , wherein the retaining ring is positioned in a circumferential groove in the bonnet . a bonnet of tubular shape having a pair of diametrically disposed openings in a periphery thereof; a first valve body coaxially disposed in said bonnet in stationary relation thereto, said valve body defining a pair of diametrically disposed passages therein for passage of water therethrough from a source of water, a second valve body coaxially disposed in said bonnet in contact with said first valve body , said second valve body defining a pair of passages communicating with said openings in said bonnet ; a stem rotatably mounted in and projecting from said bonnet , said stem being operatively connected to said second valve body for rotating said second valve body between a first position with said pair of passages therein aligned with said diametrically disposed passages in said first valve body to allow water from the source of water to flow through said first valve body and through said openings in said bonnet and a second position with said pair of passages therein out of alignment with said diametrically disposed passages in said first valve body to block a flow of water from the source of water from flowing through said first valve body and characterized in having a spiral retaining ring biasing said first valve body into contact with said second valve body , wherein the retaining ring is positioned in a circumferential groove in the bonnet .
A sheet adhering device arranged to attach an adhesive sheet (MS) to an adherend (W), the adhesive sheet (MS) being attached to an opening of a frame (RF) in advance and sized to protrude beyond an outer periphery of the adherend (W), the sheet adhering device comprising: a pressing unit arranged to press the adhesive sheet (MS) to the adherend (W) to attach the adhesive sheet (MS) to the adherend (W); and a slack removal unit that is, or comprises, a heater or cooler arranged to heat or cool the adhesive sheet (MS) to remove a slack of a part of the adhesive sheet (MS) protruded beyond the outer periphery of the adherend (W) after being attached by the pressing unit, wherein the sheet attaching device is configured to cool the adhesive sheet (MS) naturally or forcibly, after heating by the slack removal unit , or wherein the sheet attaching device is configured to heat the adhesive sheet (MS) naturally, after cooling by the slack removal unit . a pressing unit arranged to press the adhesive sheet (MS) to the adherend (W) to attach the adhesive sheet (MS) to the adherend (W); and a slack removal unit that is, or comprises, a heater or cooler arranged to heat or cool the adhesive sheet (MS) to remove a slack of a part of the adhesive sheet (MS) protruded beyond the outer periphery of the adherend (W) after being attached by the pressing unit, wherein the sheet attaching device is configured to cool the adhesive sheet (MS) naturally or forcibly, after heating by the slack removal unit , or wherein the sheet attaching device is configured to heat the adhesive sheet (MS) naturally, after cooling by the slack removal unit .
Loft ladder , which is designed to be disposed in an opening of a ceiling and to close this as ceiling hatch device, having a frame for inserting in the opening which is designed to be disposed in the opening, an attachment portion , a hatch cover , and a multipart foldable ladder which is attached pivotably, by an upper end, to the inside of the frame , the frame having a supporting configuration, and the hatch cover not being a supporting element, characterised in that the attachment portion is disposed on the frame , and the hatch cover is connected pivotably to the attachment portion by means of a hinge , in that the hatch cover is formed essentially from a heat-insulating insulation material and is essentially one-part, the hatch cover being formed from a foam core which has an insulation foam or is formed from an insulation foam and, on its outer surface, has a casing or a lamination.
A method for predicting a gas concentration based on collaborative filtering, comprising: acquiring gas-related scenario information of a plurality of historical users having a gas leakage (S100); acquiring scenario information of a current user, and calculating a similarity in the scenario information between the plurality of historical users and the current user via a collaborative filtering algorithm (S200); acquiring a first user set by selecting the historical users whose similarity exceeds a threshold, and acquiring a gas leakage predicting equation for the current user based on gas leakage data of the historical users in the first user set (S300); and predicting a gas leakage of the current user via the gas leakage predicting equation (S400); the "predicting the gas leakage of the current user via the gas leakage predicting equation" specifically comprises: acquiring a gas concentration Ct in a kitchen of the current user via a gas sensor '(S410); calculating warning time t1 for the gas concentration to reach a warning value Ct1 via the gas leakage predicting equation when the gas concentration Ct in the kitchen is detected to reach a predetermined lower limit value Ct0 (S420); and sending the warning time t1 to the user (S430). acquiring gas-related scenario information of a plurality of historical users having a gas leakage (S100); acquiring scenario information of a current user, and calculating a similarity in the scenario information between the plurality of historical users and the current user via a collaborative filtering algorithm (S200); acquiring a first user set by selecting the historical users whose similarity exceeds a threshold, and acquiring a gas leakage predicting equation for the current user based on gas leakage data of the historical users in the first user set (S300); and predicting a gas leakage of the current user via the gas leakage predicting equation (S400); the "predicting the gas leakage of the current user via the gas leakage predicting equation" specifically comprises: acquiring a gas concentration Ct in a kitchen of the current user via a gas sensor '(S410); calculating warning time t1 for the gas concentration to reach a warning value Ct1 via the gas leakage predicting equation when the gas concentration Ct in the kitchen is detected to reach a predetermined lower limit value Ct0 (S420); and sending the warning time t1 to the user (S430). acquiring a gas concentration Ct in a kitchen of the current user via a gas sensor '(S410); calculating warning time t1 for the gas concentration to reach a warning value Ct1 via the gas leakage predicting equation when the gas concentration Ct in the kitchen is detected to reach a predetermined lower limit value Ct0 (S420); and sending the warning time t1 to the user (S430).