mhurhangee/patent-ind-claim-en huggingface dataset:
A semiconductor device, comprising: a semiconductor substrate ; a first row in which a plurality of first I/O cells are disposed in parallel along an outer periphery of the semiconductor substrate and disposed at the upside of the semiconductor substrate , a plurality of first external connection terminals being disposed in parallel along the outer periphery of the semiconductor substrate and at the upside of the plurality of first I/O cells ; and a second row in which a plurality of second I/O cells are disposed in parallel at the inside of the first row along the outer periphery of the semiconductor substrate and disposed at the upside of the semiconductor substrate , a plurality of second external connection terminals being disposed in parallel along the outer periphery of the semiconductor substrate , wherein the plurality of first I/O cells are disposed at an outer periphery of the semiconductor substrate and the plurality of second I/O cells are arranged in parallel inside of the first row and the plurality of first I/O cells is disposed separately from the plurality of second I/O cells and wherein each of the second external connection terminals is disposed such that a first part thereof is disposed at the upside of a corresponding one of the plurality of second I/O cells and a second part thereof is disposed at the upside of a corresponding one of the first I/O cells . a semiconductor substrate ; a first row in which a plurality of first I/O cells are disposed in parallel along an outer periphery of the semiconductor substrate and disposed at the upside of the semiconductor substrate , a plurality of first external connection terminals being disposed in parallel along the outer periphery of the semiconductor substrate and at the upside of the plurality of first I/O cells ; and a second row in which a plurality of second I/O cells are disposed in parallel at the inside of the first row along the outer periphery of the semiconductor substrate and disposed at the upside of the semiconductor substrate , a plurality of second external connection terminals being disposed in parallel along the outer periphery of the semiconductor substrate , wherein the plurality of first I/O cells are disposed at an outer periphery of the semiconductor substrate and the plurality of second I/O cells are arranged in parallel inside of the first row and the plurality of first I/O cells is disposed separately from the plurality of second I/O cells and wherein each of the second external connection terminals is disposed such that a first part thereof is disposed at the upside of a corresponding one of the plurality of second I/O cells and a second part thereof is disposed at the upside of a corresponding one of the first I/O cells .
A separator, comprising: a first porous substrate; a second porous substrate; and a third porous substrate; wherein, the second porous substrate comprises at least one of polyethylene and a tactic polypropylene, and the first porous substrate and the third porous substrate respectively comprise one or more of isotactic polypropylene, polyvinylidene fluoride, polyethylene terephthalate, cellulose, polyimide, polyamide, spandex, and polyphthalaldehyde phenyl diamine, wherein the second porous substrate is arranged between the first porous substrate and the third porous substrate, and a tensile strength of the separator in a machine direction is greater than a tensile strength of the separator in a transverse direction, and wherein the tensile strength is determined as follows: first, the separator is cut into a sample having a width (W) of 14.5 mm and a length (L) of 100 mm in the machine direction and the transverse direction, respectively, then the separator sample is stretched at a constant rate (v) of 50 mm/min and a clamping distance of 40 mm (S1) using a high-speed tensile machine, and the tensile strengths of the separator in the machine and transverse fractures are recorded separately, characterized in that the tensile strength of the separator in the machine direction is 9806.65 Pa ∼ 29419.95 Pa (1000 kgf/m 2 ∼3000 kgf/m 2 ) and the tensile strength of the separator in the transverse direction is 196.133 Pa ∼ 3922.66 Pa (20 kgf/m 2 ∼400 kgf/m 2 ). a first porous substrate; a second porous substrate; and a third porous substrate; wherein, the second porous substrate comprises at least one of polyethylene and a tactic polypropylene, and the first porous substrate and the third porous substrate respectively comprise one or more of isotactic polypropylene, polyvinylidene fluoride, polyethylene terephthalate, cellulose, polyimide, polyamide, spandex, and polyphthalaldehyde phenyl diamine, wherein the second porous substrate is arranged between the first porous substrate and the third porous substrate, and a tensile strength of the separator in a machine direction is greater than a tensile strength of the separator in a transverse direction, and wherein the tensile strength is determined as follows: first, the separator is cut into a sample having a width (W) of 14.5 mm and a length (L) of 100 mm in the machine direction and the transverse direction, respectively, then the separator sample is stretched at a constant rate (v) of 50 mm/min and a clamping distance of 40 mm (S1) using a high-speed tensile machine, and the tensile strengths of the separator in the machine and transverse fractures are recorded separately, characterized in that the tensile strength of the separator in the machine direction is 9806.65 Pa ∼ 29419.95 Pa (1000 kgf/m 2 ∼3000 kgf/m 2 ) and the tensile strength of the separator in the transverse direction is 196.133 Pa ∼ 3922.66 Pa (20 kgf/m 2 ∼400 kgf/m 2 ).
A method for estimating accuracy of a position determination based on distance-dependent measurements, wherein each of said distance-dependent measurements provides distance information relating to a distance between a position of a receiving unit and a position of a transmitter (102-104), wherein the transmitter (102-104) is arranged to transmit a signal which is received by the receiving unit and said distance-dependent measurement is based on the received signal, said method comprising: storing area information in relation to pre-defined geographical areas (110-116), wherein the area information for each pre-defined geographical area (110-116) includes accuracy information relating to accuracy of position determinations based on distance-dependent measurements in the pre-defined geographical area (110-116); receiving a request for an accuracy estimate, said request comprising position information relating to a position of a receiving unit and transmitter information defining a number of transmitters (102-104) from which signals are received by the receiving unit and a distance-dependent measurement is based on the received signal; determining an area affiliation based on the received position information in said request, wherein the area affiliation defines at least one applicable geographical area among the pre-defined geographical areas (110-116), wherein the position of the receiving unit is located within the at least one applicable geographical area; and determining the accuracy estimate based on the stored area information for the at least one applicable geographical area, an average number of transmitters (102-104) from which signals are received by receiving units in the area, and the transmitter information in the request. storing area information in relation to pre-defined geographical areas (110-116), wherein the area information for each pre-defined geographical area (110-116) includes accuracy information relating to accuracy of position determinations based on distance-dependent measurements in the pre-defined geographical area (110-116); receiving a request for an accuracy estimate, said request comprising position information relating to a position of a receiving unit and transmitter information defining a number of transmitters (102-104) from which signals are received by the receiving unit and a distance-dependent measurement is based on the received signal; determining an area affiliation based on the received position information in said request, wherein the area affiliation defines at least one applicable geographical area among the pre-defined geographical areas (110-116), wherein the position of the receiving unit is located within the at least one applicable geographical area; and determining the accuracy estimate based on the stored area information for the at least one applicable geographical area, an average number of transmitters (102-104) from which signals are received by receiving units in the area, and the transmitter information in the request.
A method of analyzing a sample comprising the steps of: storing a reagent using a reagent storage section that is connected to a reagent container containing the reagent by transferring the reagent from the reagent container to the reagent storage section through a fluid channel , measuring a sample, using a measurement section that is connected to the reagent storage section , using the reagent transferred from the reagent storage section through a fluid channel , detecting whether the remaining amount in the reagent container is a predetermined amount or less using a reagent container remaining amount detection means , outputting a message for prompting replacement of the reagent container when the reagent container remaining amount detection means detects that the remaining amount in the reagent container is the predetermined amount or less, detecting whether the remaining amount in the reagent storage section is a predetermined amount or less using a storage remaining amount detection means , and outputting a measurement suspension message for prompting to suspend the measurement section when the storage remaining amount detection means detects that the remaining amount in the reagent storage section is the predetermined amount or less. storing a reagent using a reagent storage section that is connected to a reagent container containing the reagent by transferring the reagent from the reagent container to the reagent storage section through a fluid channel , measuring a sample, using a measurement section that is connected to the reagent storage section , using the reagent transferred from the reagent storage section through a fluid channel , detecting whether the remaining amount in the reagent container is a predetermined amount or less using a reagent container remaining amount detection means , outputting a message for prompting replacement of the reagent container when the reagent container remaining amount detection means detects that the remaining amount in the reagent container is the predetermined amount or less, detecting whether the remaining amount in the reagent storage section is a predetermined amount or less using a storage remaining amount detection means , and outputting a measurement suspension message for prompting to suspend the measurement section when the storage remaining amount detection means detects that the remaining amount in the reagent storage section is the predetermined amount or less.
Ozone water comprising ozone nano-bubbles for use in treating or preventing a cancer, wherein the ozone water comprises a Na ion, a Mg ion, a K ion and/or a Ca ion, wherein the ozone water further comprises at least one selected from the group consisting of a sulfur ion, a boron ion, a lithium ion, a silicon ion, a zinc ion, an iron ion and a strontium ion, wherein the ozone water is to be administered sequentially with other anticancer agent(s), and wherein said other anticancer agent(s) is cisplatin. wherein the ozone water comprises a Na ion, a Mg ion, a K ion and/or a Ca ion, wherein the ozone water further comprises at least one selected from the group consisting of a sulfur ion, a boron ion, a lithium ion, a silicon ion, a zinc ion, an iron ion and a strontium ion, wherein the ozone water is to be administered sequentially with other anticancer agent(s), and wherein said other anticancer agent(s) is cisplatin.
A nasal drop composition for use in the treatment or prevention of pollinosis or empyema, wherein the nasal drop composition comprises liquid produced by a production method comprising: a mixing step of mixing earthworm castings with water; and a collecting step of collecting vaporized water generated from a mixture obtained in the mixing step to obtain a liquid, and wherein the nasal drop composition further comprises a dry powder, milled matter and/or extract of earthworm. a mixing step of mixing earthworm castings with water; and a collecting step of collecting vaporized water generated from a mixture obtained in the mixing step to obtain a liquid, and wherein the nasal drop composition further comprises a dry powder, milled matter and/or extract of earthworm.
A windshield comprising: a first glass plate that includes a first surface and a second surface; a second glass plate that includes a first surface and a second surface and is arranged such that the first surface of the second glass plate faces the second surface of the first glass plate; and an intermediate film that is sandwiched between the first glass plate and the second glass plate, wherein the first glass plate includes a first end portion and a second end portion that is opposite to the first end portion, and a thickness of the first glass plate decreases from the first end portion toward the second end portion, and in the first glass plate, a surface compressive stress on the second end portion side is higher than a surface compressive stress on the first end portion side. a first glass plate that includes a first surface and a second surface; a second glass plate that includes a first surface and a second surface and is arranged such that the first surface of the second glass plate faces the second surface of the first glass plate; and an intermediate film that is sandwiched between the first glass plate and the second glass plate, wherein the first glass plate includes a first end portion and a second end portion that is opposite to the first end portion, and a thickness of the first glass plate decreases from the first end portion toward the second end portion, and in the first glass plate, a surface compressive stress on the second end portion side is higher than a surface compressive stress on the first end portion side.
An integrated magnetoresistive sensor of an AMR type, comprising a first magnetoresistive unit including: a magnetoresistor comprising a magnetoresistive strip of an elongated shape having a length in a first direction (X) parallel to a preferential magnetization direction (EA) and a width in a second direction (Y) perpendicular to the first direction; a set/reset coil having a stretch extending transversely to the first direction; characterized in further comprising a shielding region of ferromagnetic material having a width in the second direction greater than the width of the magnetoresistive strip . a magnetoresistor comprising a magnetoresistive strip of an elongated shape having a length in a first direction (X) parallel to a preferential magnetization direction (EA) and a width in a second direction (Y) perpendicular to the first direction; a set/reset coil having a stretch extending transversely to the first direction; characterized in further comprising a shielding region of ferromagnetic material having a width in the second direction greater than the width of the magnetoresistive strip .
An optical lens, comprising: a first lens , including a first optical area and a first structural area surrounding the first optical area , characterized in that the first structural area includes a height measurement area , wherein the first optical area and an area of the first structural area other than the height measurement area is coated with an anti-reflective coating, and the height measurement area is not coated with an anti-reflective coating and is configured to reflect a ranging beam; and a lens assembly , including a lens barrel and at least one second lens disposed in the lens barrel, wherein the first lens is disposed on the lens assembly and is closer to an object side than second lens, wherein the at least one second lens includes a second optical area and a second structural area surrounding the second optical area, wherein the first structural area is connected to an end face of the lens barrel near the first lens or to the second structural area of the second lens closest to the first lens. a first lens , including a first optical area and a first structural area surrounding the first optical area , characterized in that the first structural area includes a height measurement area , wherein the first optical area and an area of the first structural area other than the height measurement area is coated with an anti-reflective coating, and the height measurement area is not coated with an anti-reflective coating and is configured to reflect a ranging beam; and a lens assembly , including a lens barrel and at least one second lens disposed in the lens barrel, wherein the first lens is disposed on the lens assembly and is closer to an object side than second lens, wherein the at least one second lens includes a second optical area and a second structural area surrounding the second optical area, wherein the first structural area is connected to an end face of the lens barrel near the first lens or to the second structural area of the second lens closest to the first lens.
Method for the closed-loop control of a heating power of an induction heating system that is induced in a component in a generative manufacturing process, wherein the induction heating system has an induction generator and an induction coil and the induction coil is connected to the induction generator by electrical leads cooled by means of a cooling liquid, the closed-loop control method comprising the steps of: - determining the heating power actually induced in the component ; - comparing the actual heating power with a target value ; and - in the event of a deviation of the actual heating power from the target value that is greater than a predetermined threshold value, changing the electrical power predetermined by the induction generator in such a way that the deviation between the actual heating power and the target value is less than the predetermined threshold value, wherein the determination of the heating power actually induced in the component comprises the following substeps: - detecting the electrical power predetermined by the induction generator ; - subtracting the thermal power that is given off as waste heat to the cooling liquid of the leads ; and - subtracting the thermal power that is given off by the leads to the remaining surroundings. - determining the heating power actually induced in the component ; - comparing the actual heating power with a target value ; and - in the event of a deviation of the actual heating power from the target value that is greater than a predetermined threshold value, changing the electrical power predetermined by the induction generator in such a way that the deviation between the actual heating power and the target value is less than the predetermined threshold value, - detecting the electrical power predetermined by the induction generator ; - subtracting the thermal power that is given off as waste heat to the cooling liquid of the leads ; and - subtracting the thermal power that is given off by the leads to the remaining surroundings.
A vibratory compactor that generates vibrations by rotation of eccentric masses, comprising: an inner eccentric rod positioned inside a roller drum of the vibratory compactor and provided with a rack formed on one side of the inner eccentric rod ; a pinion engaged with the rack; a variable eccentric weight engaged with the pinion so that a distance between the variable eccentric weight and a rotation axis of the inner eccentric rod is changed as the pinion is rotated; and an outer eccentric tube including a hole for guiding movement of the rack back and forth and a support fixture for fixing a shaft of the pinion so that the pinion is rotated in engagement with the rack, wherein when the inner eccentric rod moves back and forth, the pinion that is engaged with the rack is rotated as much as the movement of the rack, and as a position of the variable eccentric weight is changed, an amplitude of vibration of the roller drum is changed. an inner eccentric rod positioned inside a roller drum of the vibratory compactor and provided with a rack formed on one side of the inner eccentric rod ; a pinion engaged with the rack; a variable eccentric weight engaged with the pinion so that a distance between the variable eccentric weight and a rotation axis of the inner eccentric rod is changed as the pinion is rotated; and an outer eccentric tube including a hole for guiding movement of the rack back and forth and a support fixture for fixing a shaft of the pinion so that the pinion is rotated in engagement with the rack, wherein when the inner eccentric rod moves back and forth, the pinion that is engaged with the rack is rotated as much as the movement of the rack, and as a position of the variable eccentric weight is changed, an amplitude of vibration of the roller drum is changed.
A method of determining whether an individual is infected with mycobacteria, the method comprising: (a) providing a system comprising a substrate which comprises at least two different mycolic-acid derived antigens at different positions on the substrate; (b) introducing a sample obtained from the individual into the system and into contact with each of the at least two different mycolic-acid derived antigens; and (c) detecting the presence or absence of the binding of a biomarker in the sample with each antigen at each position on the substrate; wherein step (c) involves contacting the substrate with a composition comprising a secondary antibody which interacts with the biomarker and observing or measuring a colour change on the substrate wherein the colour change is visually observable; and wherein the presence or absence of a colour change at two or more different positions on the substrate in combination is used to determine whether or not an individual is infected with a mycobacterial disease; wherein each antigen is at least 90% pure; and wherein a quantitative measurement at two or more different positions and a statistical analysis on the quantitative measurements is used to determine the likelihood that an individual is infected with one or more species of mycobacteria. (a) providing a system comprising a substrate which comprises at least two different mycolic-acid derived antigens at different positions on the substrate; (b) introducing a sample obtained from the individual into the system and into contact with each of the at least two different mycolic-acid derived antigens; and (c) detecting the presence or absence of the binding of a biomarker in the sample with each antigen at each position on the substrate;