mhurhangee/ep-ind-claims huggingface dataset:
A method for specifically determining the degree of progressive chronic hepatitis and liver fibrosis from a blood sample, the method comprising: (a) adsorbing to a solid body a monoclonal antibody AGP601 specific to α-1 acid glycoprotein produced by a fused cell line deposited with the accession number KCTC13998BP; (b) adding a blood sample containing the asialo α-1 acid glycoprotein to the solid body to which the monoclonal antibody AGP601 against the α-1 acid glycoprotein is absorbed in step (a) to bind the asialo α-1 acid glycoprotein to the monoclonal antibody AGP601; (c) adding and binding an HRP-RCA II conjugate which is a conjugate of ricinus communis agglutinin II (RCA II) and horseradish peroxidase as proteins binding specifically to asialo α-1 acid glycoprotein to the asialo α-1 acid glycoprotein bound to the monoclonal antibody AGP601 subjected to step (b); and (d) measuring and analyzing a concentration of the asialo α-1 acid glycoprotein; wherein the blood sample is a blood collected from patients suspected of progressive chronic hepatitis and liver fibrosis. (a) adsorbing to a solid body a monoclonal antibody AGP601 specific to α-1 acid glycoprotein produced by a fused cell line deposited with the accession number KCTC13998BP; (b) adding a blood sample containing the asialo α-1 acid glycoprotein to the solid body to which the monoclonal antibody AGP601 against the α-1 acid glycoprotein is absorbed in step (a) to bind the asialo α-1 acid glycoprotein to the monoclonal antibody AGP601; (c) adding and binding an HRP-RCA II conjugate which is a conjugate of ricinus communis agglutinin II (RCA II) and horseradish peroxidase as proteins binding specifically to asialo α-1 acid glycoprotein to the asialo α-1 acid glycoprotein bound to the monoclonal antibody AGP601 subjected to step (b); and (d) measuring and analyzing a concentration of the asialo α-1 acid glycoprotein;
A fiber light source comprising: a solid-state light source; a wavelength conversion device; and an optical fiber. wherein the solid-state light source comprises a laser diode that emits first light, the first light including blue light with a peak wavelength in the range of 430 to 470 nm, and a laser diode that emits green light with a peak wavelength in the range of 480 to 550 nm, the wavelength conversion device is disposed on a light output side or a light incident side of the optical fiber and contains a red phosphor, the red phosphor has a Ce luminescent center, is excited by at least part of the green light, and emits second light, the second light has a spectrum with a peak wavelength in the range of 600 to 700 nm, and the red phosphor contains a nitride or oxynitride as a host material. a solid-state light source; a wavelength conversion device; and an optical fiber. wherein the solid-state light source comprises a laser diode that emits first light, the first light including blue light with a peak wavelength in the range of 430 to 470 nm, and a laser diode that emits green light with a peak wavelength in the range of 480 to 550 nm, the wavelength conversion device is disposed on a light output side or a light incident side of the optical fiber and contains a red phosphor, the red phosphor has a Ce luminescent center, is excited by at least part of the green light, and emits second light, the second light has a spectrum with a peak wavelength in the range of 600 to 700 nm, and the red phosphor contains a nitride or oxynitride as a host material.
A method for correcting temperature measurement error of a solid-state temperature sensor comprising two diodes, said method comprising the steps of: (a) measuring a voltage difference (ΔVbe) between the two diodes operated at different current densities, wherein each measured voltage difference (ΔVbe) represents a respective temperature that the solid-state temperature sensor can measure, wherein a plurality of temperature output values is determined by the measured voltage difference (ΔVbe) and a bandgap reference voltage (V bandgap) that depends on said measured voltage difference (ΔVbe) multiplied by a coefficient (k), wherein the coefficient (k) is chosen such that a first order behavior of the bandgap reference voltage (V bandgap) is substantially temperature invariant; (b) determining a vertex value from an error curve of the plurality of temperature output values, wherein the vertex value represents the temperature that occurs at the peak of the error curve; (c) subtracting the vertex value from a presently measured one of the plurality of temperature output values; (d) squaring the result of step (c); (e) dividing the result of step (d) by a scaler value, wherein the scaler value is chosen to produce a correction value; and (f) adding the correction value to the presently measured one of the plurality of temperature output values to produce a corrected temperature output value. (a) measuring a voltage difference (ΔVbe) between the two diodes operated at different current densities, wherein each measured voltage difference (ΔVbe) represents a respective temperature that the solid-state temperature sensor can measure, wherein a plurality of temperature output values is determined by the measured voltage difference (ΔVbe) and a bandgap reference voltage (V bandgap) that depends on said measured voltage difference (ΔVbe) multiplied by a coefficient (k), wherein the coefficient (k) is chosen such that a first order behavior of the bandgap reference voltage (V bandgap) is substantially temperature invariant; (b) determining a vertex value from an error curve of the plurality of temperature output values, wherein the vertex value represents the temperature that occurs at the peak of the error curve; (c) subtracting the vertex value from a presently measured one of the plurality of temperature output values; (d) squaring the result of step (c); (e) dividing the result of step (d) by a scaler value, wherein the scaler value is chosen to produce a correction value; and (f) adding the correction value to the presently measured one of the plurality of temperature output values to produce a corrected temperature output value.
A surgical stapling device comprising: an elongated body portion defining a longitudinal axis; a disposable loading unit secured to a distal end of the elongated body; a tool assembly pivotally supported at the distal end of the disposable loading unit about a pivot axis which is substantially perpendicular to the longitudinal axis of the elongated body portion, the tool assembly including an anvil assembly and a cartridge assembly housing a plurality of staples, the anvil assembly being movably mounted in relation to the cartridge assembly between open and closed positions; a flexible drive assembly having a distal end configured to translate through the cartridge assembly to eject the staples therefrom; and two support members (254a, 606) positioned adjacent the pivot axis on opposite sides of the flexible drive assembly, each support member having a first end fixedly attached to the tool assembly and a second end fixedly attached to the elongated body portion, the support members being positioned adjacent the drive assembly to prevent outward buckling of the drive assembly, and a locking member (268a, 634) comprising an H-shaped body having a pair of legs (266a, 636) and a central web (267a, 638), each leg including an elongated retaining protrusion (270a, 640) having tapered ends wherein the locking member is press fit with recesses (250, 252a) formed in respective upper and lower housing halves (250, 252, 592, 594) of the disposable loading unit to fixedly secure a retaining section (258b, 618) of the support members (254a, 606) within said recesses (250, 252a). an elongated body portion defining a longitudinal axis; a disposable loading unit secured to a distal end of the elongated body; a tool assembly pivotally supported at the distal end of the disposable loading unit about a pivot axis which is substantially perpendicular to the longitudinal axis of the elongated body portion, the tool assembly including an anvil assembly and a cartridge assembly housing a plurality of staples, the anvil assembly being movably mounted in relation to the cartridge assembly between open and closed positions; a flexible drive assembly having a distal end configured to translate through the cartridge assembly to eject the staples therefrom; and two support members (254a, 606) positioned adjacent the pivot axis on opposite sides of the flexible drive assembly, each support member having a first end fixedly attached to the tool assembly and a second end fixedly attached to the elongated body portion, the support members being positioned adjacent the drive assembly to prevent outward buckling of the drive assembly, and a locking member (268a, 634) comprising an H-shaped body having a pair of legs (266a, 636) and a central web (267a, 638), each leg including an elongated retaining protrusion (270a, 640) having tapered ends wherein the locking member is press fit with recesses (250, 252a) formed in respective upper and lower housing halves (250, 252, 592, 594) of the disposable loading unit to fixedly secure a retaining section (258b, 618) of the support members (254a, 606) within said recesses (250, 252a).
A lift-type turbine comprising: a base structure; a rotor supported for rotation on the base structure about a vertical axis of rotation, characterised by the rotor comprising at least three blades supported relative to one another at circumferentially spaced positions about the vertical axis of rotation in which each blade extends between top and bottom ends of the rotor (22, 24) each blade comprising a working section having an airfoil shape in cross section such that the blades generate a torque in a direction of rotation of the turbine about the vertical axis responsive to a generally horizontal wind across the blades as the blades are rotated in the direction of rotation of the turbine; a plurality of flexible support members connected under tension between adjacent ones of the blades to extend in a generally circumferential direction about the turbine; at least some of the flexible support members comprising transverse support members (30, 32) in which each transverse support member is coupled to each blade at a different elevation than adjacent ones of the blades such that the transverse support members extend between each adjacent pair of the blades at an inclination from horizontal and such that at least some of the flexible support members intersect one another between the blades. a base structure; a rotor supported for rotation on the base structure about a vertical axis of rotation, characterised by the rotor comprising at least three blades supported relative to one another at circumferentially spaced positions about the vertical axis of rotation in which each blade extends between top and bottom ends of the rotor (22, 24) each blade comprising a working section having an airfoil shape in cross section such that the blades generate a torque in a direction of rotation of the turbine about the vertical axis responsive to a generally horizontal wind across the blades as the blades are rotated in the direction of rotation of the turbine; a plurality of flexible support members connected under tension between adjacent ones of the blades to extend in a generally circumferential direction about the turbine; at least some of the flexible support members comprising transverse support members (30, 32) in which each transverse support member is coupled to each blade at a different elevation than adjacent ones of the blades such that the transverse support members extend between each adjacent pair of the blades at an inclination from horizontal and such that at least some of the flexible support members intersect one another between the blades.
A network bridge comprising a first network interface, configured to receive a first packet sent from a first apparatus connected to a first network, comprising: an IP address control unit, comprising: an address determination unit, configured to determine whether an IP address of the network bridge is in a destination IP address field of the first packet, wherein a domain of the first network is different from a domain of the network bridge; and an address replacement unit, configured to replace an IP address of the first apparatus in a source IP address field of the first packet with a virtual IP address to obtain a replaced first packet only when the IP address of the network bridge is in the destination IP address field of the first packet, wherein the virtual IP address and the IP address of the network bridge belong to the same domain; and an application unit, configured to receive the replaced first packet from the IP address control unit and execute an application program according to the data in the replaced first packet. an address determination unit, configured to determine whether an IP address of the network bridge is in a destination IP address field of the first packet, wherein a domain of the first network is different from a domain of the network bridge; and an address replacement unit, configured to replace an IP address of the first apparatus in a source IP address field of the first packet with a virtual IP address to obtain a replaced first packet only when the IP address of the network bridge is in the destination IP address field of the first packet, wherein the virtual IP address and the IP address of the network bridge belong to the same domain; and an application unit, configured to receive the replaced first packet from the IP address control unit and execute an application program according to the data in the replaced first packet.
A system for displaying information using a computer on board a vehicle, comprising: a display for inputting and displaying information; a motion detector for detecting vehicle motion; and a computer in communication with the display and the motion detector, the computer including a central processing unit and memory; wherein the central processing unit is configured to: store information associated with user-selected information from the display; receive vehicle-motion information from the motion detector; and control the display of user-selected information on the display; the system is characterised in that the central processing unit comprises a blanking feature that, in response to the vehicle-motion information indicating a detection of motion, (i) blanks all information in the display if there is no stored information associated with user-selected information, and (ii) disables or overrides blanking and blanks all information in the display except the user-selected information associated with the stored information if user-selected information has been selected and information associated with user-selected information stored. a display for inputting and displaying information; a motion detector for detecting vehicle motion; and a computer in communication with the display and the motion detector, the computer including a central processing unit and memory; store information associated with user-selected information from the display; receive vehicle-motion information from the motion detector; and control the display of user-selected information on the display;
A fast-curing mineral binder mixture comprising: a titanium -based accelerator; cement comprising one or more components selected from the compounds 3CaO ∗ Al 2 O 3, 12CaO ∗ 7Al 2 O 3, CaO ∗ Al 2 O 3, CaO ∗ 2Al 2 O 3, CaO ∗ 6Al 2 O 3 and/or 4CaO ∗ 3Al 2 O 3 ∗ SO 3; a sulfate carrier in a fraction of 15 to 80 wt%, preferably 25 to 50 wt%; optionally one or more than one alkaline component; and optionally one or more additives, where the wt% is based on the fast-curing mineral binder mixture. a titanium -based accelerator; cement comprising one or more components selected from the compounds 3CaO ∗ Al 2 O 3, 12CaO ∗ 7Al 2 O 3, CaO ∗ Al 2 O 3, CaO ∗ 2Al 2 O 3, CaO ∗ 6Al 2 O 3 and/or 4CaO ∗ 3Al 2 O 3 ∗ SO 3; a sulfate carrier in a fraction of 15 to 80 wt%, preferably 25 to 50 wt%; optionally one or more than one alkaline component; and optionally one or more additives, where the wt% is based on the fast-curing mineral binder mixture.
A method for detecting a location of an Electronic Article Surveillance ("EAS") security tag, comprising: determining a first amplitude of a response signal generated by the EAS security tag and received at a first pedestal, and a second amplitude of the response signal received at a second pedestal spaced apart from the first pedestal; processing the first and second amplitudes to determine whether the EAS security tag resides within a specified distance range of the first or second pedestal (102a, 102b), a detection zone of an EAS detection system, or a backfield of the EAS detection system; issuing an alarm when the EAS security tag is determined to reside within the specified distance range of the first or second pedestal (102, 102b) or the detection zone of the EAS detection system; and preventing issuance of the alarm when the EAS security tag is determined to reside in the backfield of the EAS detection system; wherein the processing comprises identifying which of the first and second amplitudes has the highest relative value, wherein the alarm is issued when the highest relative value exceeds a first threshold value. determining a first amplitude of a response signal generated by the EAS security tag and received at a first pedestal, and a second amplitude of the response signal received at a second pedestal spaced apart from the first pedestal; processing the first and second amplitudes to determine whether the EAS security tag resides within a specified distance range of the first or second pedestal (102a, 102b), a detection zone of an EAS detection system, or a backfield of the EAS detection system; issuing an alarm when the EAS security tag is determined to reside within the specified distance range of the first or second pedestal (102, 102b) or the detection zone of the EAS detection system; and preventing issuance of the alarm when the EAS security tag is determined to reside in the backfield of the EAS detection system; wherein the processing comprises identifying which of the first and second amplitudes has the highest relative value, wherein the alarm is issued when the highest relative value exceeds a first threshold value.
A flexible sleeve comprising: a network of flexible non-porous tubing interlaced at a plurality of junctions to form a lattice structure that defines a plurality of apertures configured to allow for a flow of air and water to the body area and to accommodate for unique contours of the body area, wherein the lattice structure comprises: a bottom layer of the network of flexible non-porous tubing configured to contact the body area when in use; a top layer of the network of flexible non-porous tubing; a middle layer of the network of flexible non-porous tubing positioned between the bottom layer and the top layer and connected to the bottom layer and the top layer to form (i) a first lumen defined by the bottom layer and the middle layer, and (ii) a second lumen defined by the top layer and the middle layer, wherein a thickness of the top layer is greater than a thickness of the middle layer and a thickness of the bottom layer; a thermo-resistant padding positioned in the first lumen, wherein the thermo-resistant padding comprises a flowable and injectable material that cures within the first lumen into a non-flowable material; and a longitudinal seam in the network of flexible non-porous tubing extending from a first end of the lattice structure to a second end of the lattice structure, wherein the longitudinal seam includes the bottom layer, the middle layer, and the top layer, and wherein the longitudinal seam does not include the first lumen or the second lumen such that the longitudinal seam is void of both the thermo-resistant padding and a resinous material; and an inlet in fluid communication with the second lumen of the lattice structure to permit the flow of fluids into and out of the network of flexible non-porous tubing. a bottom layer of the network of flexible non-porous tubing configured to contact the body area when in use; a top layer of the network of flexible non-porous tubing; a middle layer of the network of flexible non-porous tubing positioned between the bottom layer and the top layer and connected to the bottom layer and the top layer to form (i) a first lumen defined by the bottom layer and the middle layer, and (ii) a second lumen defined by the top layer and the middle layer, wherein a thickness of the top layer is greater than a thickness of the middle layer and a thickness of the bottom layer; a thermo-resistant padding positioned in the first lumen, wherein the thermo-resistant padding comprises a flowable and injectable material that cures within the first lumen into a non-flowable material; and a longitudinal seam in the network of flexible non-porous tubing extending from a first end of the lattice structure to a second end of the lattice structure, wherein the longitudinal seam includes the bottom layer, the middle layer, and the top layer, and wherein the longitudinal seam does not include the first lumen or the second lumen such that the longitudinal seam is void of both the thermo-resistant padding and a resinous material; and an inlet in fluid communication with the second lumen of the lattice structure to permit the flow of fluids into and out of the network of flexible non-porous tubing.
Cleaning cloth or pad comprising - at least one cleaning layer having at least one cleaning area, - at least one contact layer having at least one contact area and - at least one reinforcing layer in the form of a carrier layer which is arranged between the cleaning layer and the contact layer, at least in sections, characterized in that at least one texturing in the form of a grip area is formed on the contact area only, at least in sections, wherein the grip area has a frictional resistance that is greater than that of the contact area. - at least one cleaning layer having at least one cleaning area, - at least one contact layer having at least one contact area and - at least one reinforcing layer in the form of a carrier layer which is arranged between the cleaning layer and the contact layer, at least in sections,