mhurhangee/patent-ind-claim-en huggingface dataset:
A secondary battery cartridge comprising: a battery storing box comprising a battery accommodation space in which a secondary battery B is stored, and a flow channel partitioned from the battery accommodation space and having a hollow structure, and comprising, at opposite side parts thereof, respectively, a slot communicating with the battery accommodation space, and a venting hole communicating with the flow channel; a sensing unit comprising an electrically conductive material, mounted on at least one side part of the battery storing box, and electrically connected to an electrode lead (L) of the secondary battery, the electrode lead extending to an inside and an outside of the battery storing box through the slot; and a cover unit provided in a box form having one open side, and mounted on the opposite side parts of the battery storing box in order to shield the slot, the venting hole, and the sensing unit of the battery storing box, wherein a gas outlet is provided to the cover unit mounted on at least one of the opposite side parts of the battery storing box, wherein the battery storing box comprises an upper case and a lower case , and the battery accommodation space, the flow channel, the slot, and the venting hole are formed by mutual coupling of the upper case and the lower case. a battery storing box comprising a battery accommodation space in which a secondary battery B is stored, and a flow channel partitioned from the battery accommodation space and having a hollow structure, and comprising, at opposite side parts thereof, respectively, a slot communicating with the battery accommodation space, and a venting hole communicating with the flow channel; a sensing unit comprising an electrically conductive material, mounted on at least one side part of the battery storing box, and electrically connected to an electrode lead (L) of the secondary battery, the electrode lead extending to an inside and an outside of the battery storing box through the slot; and a cover unit provided in a box form having one open side, and mounted on the opposite side parts of the battery storing box in order to shield the slot, the venting hole, and the sensing unit of the battery storing box, wherein a gas outlet is provided to the cover unit mounted on at least one of the opposite side parts of the battery storing box, wherein the battery storing box comprises an upper case and a lower case , and the battery accommodation space, the flow channel, the slot, and the venting hole are formed by mutual coupling of the upper case and the lower case.
Method for devitalising plants, advantageously ligneous plants, characterised in that - In a first step the bark is stripped from said plant over a previously pruned area, over all or a portion of the perimeter of the trunk of said plant; - In a second step ∘ either said stripped area is put into contact with an aqueous anti-healing solution, the area thus treated being hermetically covered and said aqueous anti-healing solution being left in contact with said plant for a time sufficient to prevent the healing of said treated area and contribute to the process of devitalisation; ∘ or the temperature of said stripped area is lowered to a temperature comprised between -10°C and -50°C, preferably between -20°C and -40°C very preferably between -25°C and -35°C. - In a first step the bark is stripped from said plant over a previously pruned area, over all or a portion of the perimeter of the trunk of said plant; - In a second step ∘ either said stripped area is put into contact with an aqueous anti-healing solution, the area thus treated being hermetically covered and said aqueous anti-healing solution being left in contact with said plant for a time sufficient to prevent the healing of said treated area and contribute to the process of devitalisation; ∘ or the temperature of said stripped area is lowered to a temperature comprised between -10°C and -50°C, preferably between -20°C and -40°C very preferably between -25°C and -35°C. ∘ either said stripped area is put into contact with an aqueous anti-healing solution, the area thus treated being hermetically covered and said aqueous anti-healing solution being left in contact with said plant for a time sufficient to prevent the healing of said treated area and contribute to the process of devitalisation; ∘ or the temperature of said stripped area is lowered to a temperature comprised between -10°C and -50°C, preferably between -20°C and -40°C very preferably between -25°C and -35°C.
A device for generating a skin graft, comprising: a harvester body adapted for placement on a patient's skin; a detachable head portion having a seal for forming a reduced pressure chamber when the head portion and the harvester body are joined together and the harvester is coupled to a vacuum pump or other source of reduced pressure, the head portion further including a heating element that delivers a warm hypotonic fluid to at least a portion of the patient's skin within the reduced pressure chamber to cause the portion of the patient's skin exposed to the chamber to assimilate fluid before and/or after applying negative pressure to the reduced pressure chamber to pull the skin into the reduced pressure chamber and thereby raise a plurality of blisters; at least one temperature measuring element disposed in said harvester body or said detachable head portion for measuring temperature of the patient's skin or said reduced pressure chamber. a harvester body adapted for placement on a patient's skin; a detachable head portion having a seal for forming a reduced pressure chamber when the head portion and the harvester body are joined together and the harvester is coupled to a vacuum pump or other source of reduced pressure, the head portion further including a heating element that delivers a warm hypotonic fluid to at least a portion of the patient's skin within the reduced pressure chamber to cause the portion of the patient's skin exposed to the chamber to assimilate fluid before and/or after applying negative pressure to the reduced pressure chamber to pull the skin into the reduced pressure chamber and thereby raise a plurality of blisters; at least one temperature measuring element disposed in said harvester body or said detachable head portion for measuring temperature of the patient's skin or said reduced pressure chamber.
Roll ring arrangement with a roll ring and a roll shaft , on which the roll ring is arranged to be secure against relative rotation and has a threaded region which as seen towards the free end of the roll shaft is disposed axially adjacent to the roll ring , wherein a nut screwed onto the threaded region exerts an axial stress on the roll ring , wherein arranged between the roll ring and the threaded region is a sleeve-like clamping element , which is formed with a front collar facing the threaded region and a rear collar , wherein on the one hand the rear collar bears against the roll ring with a friction couple and on the other hand a splined shaft profile , which is formed in the middle section between the two collars , of the clamping element is arranged in mechanically coupled manner on a splined shaft profile of the roll shaft , wherein the sleeve-like clamping element can be loaded by the clamping nut , which is screwed onto the threaded region , towards the roll ring , characterised in that an intermediate ring , which in the sleeve-like clamping element is arranged concentrically on the roll shaft in a receiving section and which is surrounded by the front collar , and a spring means, preferably consisting of at least two plate springs , in a free space , which is radially and axially bounded by the intermediate ring and the middle section of the clamping element , of the receiving section are associated with the clamping nut for clamping force transmission.
A method for setting conditions for a shaft diameter enlargement in which an axially intermediate portion (Wa) of a shaft workpiece (W) is enlarged in a radial direction by rotating the shaft workpiece (W) about an axis of the shaft workpiece (W) with axial compressive force being applied to the intermediate portion (Wa) and with a bending angle being applied to the intermediate portion (Wa), the method being characterized in that it comprises: setting an allowable number of rotations (N) based on test data, wherein the test data is obtained by performing the shaft diameter enlargement on test shafts, each of the test shafts being made of a same material and having a same shape as the shaft workpiece (W), wherein the test data is indicative of a relationship between, for each of the test shafts, a number of rotations of the test shaft required for enlarging an axially intermediate portion of the test shaft to a predetermined outer diameter and a crack occurrence probability at a boundary between the intermediate portion of the test shaft and a shaft portion of the test shaft other than the intermediate portion, and wherein the allowable number of rotations (N) is set such that the crack occurrence probability at the boundary is equal to or lower than a threshold value; and setting that a number of rotations (n) of the shaft workpiece (W) in enlarging the intermediate portion (Wa) of the shaft workpiece (W) to have the predetermined diameter by performing the shaft diameter enlargement on the shaft workpiece (W) be equal to or less than the allowable number of rotations (N). setting an allowable number of rotations (N) based on test data, wherein the test data is obtained by performing the shaft diameter enlargement on test shafts, each of the test shafts being made of a same material and having a same shape as the shaft workpiece (W), wherein the test data is indicative of a relationship between, for each of the test shafts, a number of rotations of the test shaft required for enlarging an axially intermediate portion of the test shaft to a predetermined outer diameter and a crack occurrence probability at a boundary between the intermediate portion of the test shaft and a shaft portion of the test shaft other than the intermediate portion, and wherein the allowable number of rotations (N) is set such that the crack occurrence probability at the boundary is equal to or lower than a threshold value; and setting that a number of rotations (n) of the shaft workpiece (W) in enlarging the intermediate portion (Wa) of the shaft workpiece (W) to have the predetermined diameter by performing the shaft diameter enlargement on the shaft workpiece (W) be equal to or less than the allowable number of rotations (N).
A liquid storage container for storing liquid with which a liquid tank of an inkjet printing apparatus is to be replenished, comprising: a discharge port member including a discharge port through which liquid stored in a storage portion can be discharged and a coupling portion in which male thread portions are arranged on the outside; and a cover portion including a female thread portion on the inside and configured to be attachable to the discharge port member , the female thread portion configured to be screwed to the male thread portions , characterized in that the male thread portions are discontinuous in the coupling portion in that they are not continuously formed over the entire periphery of the discharge port member , and the coupling portion includes a recess portion in a portion where the male thread portions are discontinuous, wherein the recess portion is recessed from a circle formed according to a diameter of a portion of the coupling portion excluding a projecting portion of the male thread portions. a discharge port member including a discharge port through which liquid stored in a storage portion can be discharged and a coupling portion in which male thread portions are arranged on the outside; and a cover portion including a female thread portion on the inside and configured to be attachable to the discharge port member , the female thread portion configured to be screwed to the male thread portions , characterized in that the male thread portions are discontinuous in the coupling portion in that they are not continuously formed over the entire periphery of the discharge port member , and the coupling portion includes a recess portion in a portion where the male thread portions are discontinuous, wherein the recess portion is recessed from a circle formed according to a diameter of a portion of the coupling portion excluding a projecting portion of the male thread portions.
A metal leaf spring structure of electrical connection terminal, comprising a main body , the main body having a base section defined with a first end and a second end , the first end being connected with a first section and a locating section , the second end being connected with a bight section and a reciprocally movable second section , a bent section being formed between the first end of the base section and the first section , the bent section containing an angle, the first section being bent toward the second end of the base section and extending to connect with the locating section , whereby a subsidiary bent section is formed between the first section and the locating section , the subsidiary bent section containing an angle, the bight section between the second end and the second section of the base section containing an angle, whereby the second section obliquely extends in a direction to the first end of the base section , the locating section being positioned in a reciprocally moving path of the second section to set up a moving end point of the second section , characterized in that a protrusion section is formed on a lateral side of the locating section , the protrusion section being fixable in a recess formed on a case or an electrical connection member .
Method for the catalytic production of methanol from synthesis gas, wherein the method comprises the following steps: providing a reactor; arranging at least two catalyst layers in the reactor, wherein the first catalyst layer is arranged upstream and the second catalyst layer is arranged downstream, and wherein the activity of the first catalyst layer is higher than the activity of the second catalyst layer; applying synthesis gas to the reactor, comprising hydrogen and carbon oxides, converting the synthesis gas in the reactor under methanol synthesis conditions to methanol, channeling the produced methanol and the non-converted synthesis gas out of the reactor. providing a reactor; arranging at least two catalyst layers in the reactor, wherein the first catalyst layer is arranged upstream and the second catalyst layer is arranged downstream, and wherein the activity of the first catalyst layer is higher than the activity of the second catalyst layer; applying synthesis gas to the reactor, comprising hydrogen and carbon oxides, converting the synthesis gas in the reactor under methanol synthesis conditions to methanol, channeling the produced methanol and the non-converted synthesis gas out of the reactor.
A high-strength non-oriented electrical steel sheet, having a chemical composition consisting of: by mass%, C: not less than 0.002% nor more than 0.05%; Si: not less than 2.0% nor more than 4.0%; Mn: not less than 0.05% nor more than 1.0%; N: not less than 0.002% nor more than 0.05%; Cu: not less than 0.5% nor more than 3.0%, Al: 3.0% or less; and optionally at least one of Ni: not less than 0.5% nor more than 3.0%, Sn: not less than 0.01% nor more than 0.10%, and B: not less than 0.0010% nor more than 0.0050%; and when a Nb content (%) is set to [Nb], a Zr content (%) is set to [Zr], a Ti content (%) is set to [Ti], a V content (%) is set to [V], a C content (%) is set to [C], and an N content (%) is set to [N], Formula and Formula are satisfied; and a balance composed of Fe and inevitable impurities; a recrystallization area ratio of 50% or more; a yield stress at a tensile test of 700 MPa or more; a fracture elongation of 10% or more; and an eddy current loss We 10/400 (W/kg) which satisfies Formula in relation to a sheet thickness t (mm) of the steel sheet. 2.0 × 10 − 4 ≦ Nb / 93 + Zr / 91 + Ti / 48 + V / 51 1.0 × 10 − 3 ≦ C / 12 + N / 14 − Nb / 93 + Zr / 91 + Ti / 48 + V / 51 ≦ 3.0 × 10 − 3 We 10 / 400 ≦ 70 × t 2 by mass%, C: not less than 0.002% nor more than 0.05%; Si: not less than 2.0% nor more than 4.0%; Mn: not less than 0.05% nor more than 1.0%; N: not less than 0.002% nor more than 0.05%; Cu: not less than 0.5% nor more than 3.0%, Al: 3.0% or less; and optionally at least one of Ni: not less than 0.5% nor more than 3.0%, Sn: not less than 0.01% nor more than 0.10%, and B: not less than 0.0010% nor more than 0.0050%; and when a Nb content (%) is set to [Nb], a Zr content (%) is set to [Zr], a Ti content (%) is set to [Ti], a V content (%) is set to [V], a C content (%) is set to [C], and an N content (%) is set to [N], Formula and Formula are satisfied; and a balance composed of Fe and inevitable impurities; a recrystallization area ratio of 50% or more; a yield stress at a tensile test of 700 MPa or more; a fracture elongation of 10% or more; and an eddy current loss We 10/400 (W/kg) which satisfies Formula in relation to a sheet thickness t (mm) of the steel sheet. 2.0 × 10 − 4 ≦ Nb / 93 + Zr / 91 + Ti / 48 + V / 51 1.0 × 10 − 3 ≦ C / 12 + N / 14 − Nb / 93 + Zr / 91 + Ti / 48 + V / 51 ≦ 3.0 × 10 − 3 We 10 / 400 ≦ 70 × t 2
A method for producing a blank for a packing , which includes a cellulose containing base material with at least one line from the group of the folding, score, cutting, groove and/or bending lines, characterized in that the at least one line is defined at least in sections by applying at least one hygroscopic substance to the base material, wherein at least one hygroscopic substance from the group of the hygroscopic solids, gels and/or liquids is applied to the base material, and wherein the blank is dried after applying the at least one hygroscopic substance.
A monoclonal anti-Claudin 1 antibody, or a biologically active fragment thereof that binds Claudin 1 extracellular domain, for use in the prevention of a non-HCV-associated hepatocellular carcinoma in a subject, wherein the monoclonal anti-Claudin 1 antibody is secreted by a hybridoma cell line deposited at the DSMZ on July 29, 2008 under an Accession Number selected from the group consisting of DSM ACC2931, DSM ACC2932, DSM ACC2933, DSM ACC2934, DSM ACC2935, DSM ACC2936, DSM ACC2937, and DSM ACC2938, or wherein the monoclonal antibody or biologically active fragment thereof has the six complementary determining regions (CDRs) of a monoclonal antibody secreted by one of said hybridoma cell lines.
A press frame module comprising: a substantially planar body with opposite faces, an outer edge , and an inner edge , wherein the inner edge defines an opening that extends through the body ; and an upper platform and a lower platform coupled to the inner edge and extending at least partially through the opening, each of the platforms having a corresponding outer face, wherein the outer faces are spaced apart by a gap and extend substantially perpendicular to the faces of the body , wherein the platforms and the inner edge of the body collectively define an elongate aperture with a middle portion and two end portions, and the end portions are curved, wherein the press frame module has a first configuration in which the middle portion of the elongate aperture is disposed between the outer faces of the platforms , and each of the end portions is defined by a respective portion of the inner edge that forms a multiradial curve, characterized in that : the multiradial curve is symmetrical about a generally horizontal plane that lies along a longitudinal centerline (B--B) of the aperture equidistant between the upper and lower platforms, wherein the multiradial curve includes a first arc located above the outer face of the upper platform , a second arc that extends through said plane, and a third arc located below the outer face of the lower platform and in vertical alignment with the first arc, such that the greatest width of the aperture is along said plane and the end portions have a greater vertical height than the middle portion. a substantially planar body with opposite faces, an outer edge , and an inner edge , wherein the inner edge defines an opening that extends through the body ; and an upper platform and a lower platform coupled to the inner edge and extending at least partially through the opening, each of the platforms having a corresponding outer face, wherein the outer faces are spaced apart by a gap and extend substantially perpendicular to the faces of the body , wherein the platforms and the inner edge of the body collectively define an elongate aperture with a middle portion and two end portions, and the end portions are curved, wherein the press frame module has a first configuration in which the middle portion of the elongate aperture is disposed between the outer faces of the platforms , and each of the end portions is defined by a respective portion of the inner edge that forms a multiradial curve, characterized in that : the multiradial curve is symmetrical about a generally horizontal plane that lies along a longitudinal centerline (B--B) of the aperture equidistant between the upper and lower platforms, wherein the multiradial curve includes a first arc located above the outer face of the upper platform , a second arc that extends through said plane, and a third arc located below the outer face of the lower platform and in vertical alignment with the first arc, such that the greatest width of the aperture is along said plane and the end portions have a greater vertical height than the middle portion.
Method for elemental analysis, in particular for the determination of carbon and nitrogen, comprising the following method steps: - feeding the sample (1.2a) to a first part of a combustion unit (1.3) at temperatures of at least 500°C and an atmosphere with an oxygen excess, - passing the resulting gas for oxidation purposes over a metal oxide catalyst (1.4) in a second part of the combustion unit, - separation of CO 2 and H 2 O (1.6) by known gas drying systems or absorption systems, - reduction of the nitrogen oxides (1.5) obtained, preferably over a surface of pure copper, and measurement of the nitrogen obtained using a suitable detector, preferably a calibrated thermal conductivity detector, - measuring the amount of carbon in the sample by determining the CO 2 content (1.7,1.8), preferably by quantitative desorption of the CO 2 adsorbed in the analytical method and subsequent detection, preferably by a calibrated thermal conductivity detector, characterized in that the metal oxide catalyst comprises oxides of cerium, copper and manganese on an aluminum oxide carrier, in that the amount of Ce, Cu and Mn in the catalysts (mass ratio) satisfies the ratio Ce < Mn < Cu and in that the catalyst is free of precious metals and does not contain Ag, Ti, Zr, Cr or Ni. - feeding the sample (1.2a) to a first part of a combustion unit (1.3) at temperatures of at least 500°C and an atmosphere with an oxygen excess, - passing the resulting gas for oxidation purposes over a metal oxide catalyst (1.4) in a second part of the combustion unit, - separation of CO 2 and H 2 O (1.6) by known gas drying systems or absorption systems, - reduction of the nitrogen oxides (1.5) obtained, preferably over a surface of pure copper, and measurement of the nitrogen obtained using a suitable detector, preferably a calibrated thermal conductivity detector, - measuring the amount of carbon in the sample by determining the CO 2 content (1.7,1.8), preferably by quantitative desorption of the CO 2 adsorbed in the analytical method and subsequent detection, preferably by a calibrated thermal conductivity detector,