mhurhangee/ep-ind-claims huggingface dataset:
A blood sugar model generation apparatus comprising: a data obtainer configured to calculate blood sugar profile data of a user based on a first type spectrum-blood sugar profile relationship model and a first type spectrum data for a skin of the user; a second type spectrum measurer configured to measure training second type spectrum data for the skin of the user; a processor configured to generate an individualized blood sugar model based on the calculated blood sugar profile data and the measured training second type spectrum data; and an outputter configured to output the generated individualized blood sugar model. a data obtainer configured to calculate blood sugar profile data of a user based on a first type spectrum-blood sugar profile relationship model and a first type spectrum data for a skin of the user; a second type spectrum measurer configured to measure training second type spectrum data for the skin of the user; a processor configured to generate an individualized blood sugar model based on the calculated blood sugar profile data and the measured training second type spectrum data; and an outputter configured to output the generated individualized blood sugar model.
A gene multiple insertion cassette comprising: an N-terminal fragment of Saccharomyces cerevisiae ribosomal DNA nontranscribed spacer (rDNA NTS); a target insertion gene; an auxotrophic selection marker gene comprising a promoter region; and a C-terminal fragment of S. cerevisiae rDNA NTS, in the stated order, wherein the N-terminal fragment of S. cerevisiae rDNA NTS is represented by SEQ ID NO: 1, and the C-terminal fragment of S. cerevisiae rDNA NTS is represented by SEQ ID NO: 2. an N-terminal fragment of Saccharomyces cerevisiae ribosomal DNA nontranscribed spacer (rDNA NTS); a target insertion gene; an auxotrophic selection marker gene comprising a promoter region; and a C-terminal fragment of S. cerevisiae rDNA NTS, in the stated order, wherein the N-terminal fragment of S. cerevisiae rDNA NTS is represented by SEQ ID NO: 1, and the C-terminal fragment of S. cerevisiae rDNA NTS is represented by SEQ ID NO: 2.
A sample processing system comprising: a transporting apparatus including a rack transporter for horizontally and rectilinearly transporting a rack which accommodates a plurality of samples including first and second samples; first and second measurement units (2, 3), arranged to be adjacent to each other along a direction in which the rack is transported by the rack transporter, for measuring the samples accommodated in the rack transported by the transporting apparatus; a base on which the first and second measurement units (2, 3) are placed; and a movement restricting section (611, 612, 621, 622) for restricting, on the base, a movement area within which one of the first and second measurement units (2, 3) moves, wherein the movement restricting section (611, 612, 621, 622) allows the one measurement unit to move on the base so as to change orientation of the one measurement unit, characterized in that the transporting apparatus is adapted to transport the rack so as to supply the first sample to the first measurement unit and the second sample to the second measurement unit when the first and second measurement units (2, 3) are arranged along the direction in which the rack is transported by the rack transporter, and in that the transporting apparatus is adapted to transport the rack so as to supply the first and second samples to the other measurement unit when the orientation of the one measurement unit is changed. a transporting apparatus including a rack transporter for horizontally and rectilinearly transporting a rack which accommodates a plurality of samples including first and second samples; first and second measurement units (2, 3), arranged to be adjacent to each other along a direction in which the rack is transported by the rack transporter, for measuring the samples accommodated in the rack transported by the transporting apparatus; a base on which the first and second measurement units (2, 3) are placed; and a movement restricting section (611, 612, 621, 622) for restricting, on the base, a movement area within which one of the first and second measurement units (2, 3) moves, wherein the movement restricting section (611, 612, 621, 622) allows the one measurement unit to move on the base so as to change orientation of the one measurement unit, characterized in that the transporting apparatus is adapted to transport the rack so as to supply the first sample to the first measurement unit and the second sample to the second measurement unit when the first and second measurement units (2, 3) are arranged along the direction in which the rack is transported by the rack transporter, and in that the transporting apparatus is adapted to transport the rack so as to supply the first and second samples to the other measurement unit when the orientation of the one measurement unit is changed.
Use of a liquid composition for the manufacture of a medicament for the treatment of open wounds, the open wound being selected from the group consisting of diabetic wounds, pressure ulcers, arterial ulcers, debuticus ulcers and venous stasis ulcers, said composition comprising: (a) 0.5 to 25 wt.%, calculated on the total weight of the composition, of a component (a) selected from the salts consisting of cations A n+ and anions derived from halogen oxides according to the general formula [O m X] -, wherein A is a metal selected from Groups 1 or 2 of the Periodic System of the Elements and is lithium, sodium, potassium or calcium, X is a halogen atom, m = 1 - 4, n is 1 or 2; (b) 0.1 to 8 wt.%, calculated on the total weight of the composition, of a component (b) selected from the group of oxygen donors, wherein the oxygen donor is a metal perborate compound which is selected from the salts consisting of cations A n+ and anions derived from borates according to the general formula [B p O q] r-, wherein A is a metal selected from Groups 1 or 2 of the Periodic System of the Elements and is lithium, sodium, potassium or calcium, p = 1 - 4, q = 1 - 8 and r = 1 - 3; and (c) a component (d) selected from the group of liquid binders, wherein the liquid binder is selected from the group consisting of liquid polyols, polymeric binders, fumed silica, gums and combinations thereof. (a) 0.5 to 25 wt.%, calculated on the total weight of the composition, of a component (a) selected from the salts consisting of cations A n+ and anions derived from halogen oxides according to the general formula [O m X] -, wherein A is a metal selected from Groups 1 or 2 of the Periodic System of the Elements and is lithium, sodium, potassium or calcium, X is a halogen atom, m = 1 - 4, n is 1 or 2; (b) 0.1 to 8 wt.%, calculated on the total weight of the composition, of a component (b) selected from the group of oxygen donors, wherein the oxygen donor is a metal perborate compound which is selected from the salts consisting of cations A n+ and anions derived from borates according to the general formula [B p O q] r-, wherein A is a metal selected from Groups 1 or 2 of the Periodic System of the Elements and is lithium, sodium, potassium or calcium, p = 1 - 4, q = 1 - 8 and r = 1 - 3; and (c) a component (d) selected from the group of liquid binders, wherein the liquid binder is selected from the group consisting of liquid polyols, polymeric binders, fumed silica, gums and combinations thereof.
A wall-mounted drum type washing machine comprising: a rear panel configured to be mounted on a wall surface; a tub configured to contain washing water, integrally formed with the rear panel; a front panel on the tub; a box unit configured to surround the tub; a cover unit elastically coupled to a front side of the box unit; and a detachable detergent box configured to be inserted through the cover unit and into the front panel, wherein the front panel has a first insertion hole configured to receive the detergent box, and the first insertion hole has a first water supply hole connected to a water supply pipe, characterized in that the detergent box comprises: a first housing configured to be inserted into the first insertion hole; and a rotatable first handle connected to the first housing and detachably coupled to the front panel. a rear panel configured to be mounted on a wall surface; a tub configured to contain washing water, integrally formed with the rear panel; a front panel on the tub; a box unit configured to surround the tub; a cover unit elastically coupled to a front side of the box unit; and a detachable detergent box configured to be inserted through the cover unit and into the front panel, wherein the front panel has a first insertion hole configured to receive the detergent box, and the first insertion hole has a first water supply hole connected to a water supply pipe, a first housing configured to be inserted into the first insertion hole; and a rotatable first handle connected to the first housing and detachably coupled to the front panel.
A well screen assembly, comprising: a well treatment substance secured to the well screen assembly, and characterized in that: the well screen assembly further comprises at least one reactive component (40, 42) of a well treatment stimulant, the at least one reactive component (40, 42) being secured to the well screen assembly, wherein the well treatment substance comprises a permeability increaser. a well treatment substance secured to the well screen assembly, and characterized in that: the well screen assembly further comprises at least one reactive component (40, 42) of a well treatment stimulant, the at least one reactive component (40, 42) being secured to the well screen assembly, wherein the well treatment substance comprises a permeability increaser. the well screen assembly further comprises at least one reactive component (40, 42) of a well treatment stimulant, the at least one reactive component (40, 42) being secured to the well screen assembly, wherein the well treatment substance comprises a permeability increaser.
A process for producing olefin having 3 or more carbon atoms from ethylene, said process comprising the steps of: (i) obtaining a cold fraction by cooling an ethylene-containing ethane-cracked gas which is obtained by thermal cracking of ethane in the presence of steam, to 600 °C or less; and (ii) bringing said cold fraction into contact with a catalyst containing a ZSM-5 zeolite at an ethylene conversion rate of from 45 to 85 % by mass, wherein the ethylene conversion is carried out at a reaction temperature of from 450 °C to 600 °C, and at a partial pressure of the ethylene-containing gas of from 0.01 MPa to 1 MPa, wherein the silica/alumina molar ratio of the ZSM-5 zeolite is from 20 to 500, and the acid amount of the ZSM-5 zeolite is from 20 μmol/g-zeolite to 500 μmol/g-zeolite, as measured through temperature programmed desorption spectrometry as described in the description, wherein the ethylene conversion rate is calculated in accordance with the following expression: Ethylene conversion rate = ethylene concentration of ethane − cracked gas to be supplied to catalytic − reaction unit 3 − ethylene concentration of catalytic cracking gas discharged from catalytic − reaction unit 3 / ethylene concentration of ethane − cracked gas to be supplied to catalytic − reaction unit 3 × 100 for obtaining a catalytic cracking gas containing said olefin having 3 or more carbon atoms. (i) obtaining a cold fraction by cooling an ethylene-containing ethane-cracked gas which is obtained by thermal cracking of ethane in the presence of steam, to 600 °C or less; and (ii) bringing said cold fraction into contact with a catalyst containing a ZSM-5 zeolite at an ethylene conversion rate of from 45 to 85 % by mass,
A method for forming a diffusion cooling hole in a substrate, the method comprising: removing material from the substrate to form a metering section having an inlet on a first side of the substrate; removing material from the substrate to form a diffusing section that extends between the metering section and an outlet located on a second side of the substrate generally opposite the first side; forming a first feature on a substrate surface within one of the metering section and the diffusing section; and characterised by forming a second feature along substantially all of the substrate surfaces adjacent the outlet, wherein the outlet before forming the second feature includes a corner having a first angle, and wherein the second feature forms a second corner having a second angle generally smaller than the first angle; wherein forming the first and second features comprises: depositing a material on the substrate surface; selectively heating the material to join the material with the substrate surface and form the first and second features. removing material from the substrate to form a metering section having an inlet on a first side of the substrate; removing material from the substrate to form a diffusing section that extends between the metering section and an outlet located on a second side of the substrate generally opposite the first side; forming a first feature on a substrate surface within one of the metering section and the diffusing section; and characterised by forming a second feature along substantially all of the substrate surfaces adjacent the outlet, wherein the outlet before forming the second feature includes a corner having a first angle, and wherein the second feature forms a second corner having a second angle generally smaller than the first angle; wherein forming the first and second features comprises: depositing a material on the substrate surface; selectively heating the material to join the material with the substrate surface and form the first and second features. depositing a material on the substrate surface; selectively heating the material to join the material with the substrate surface and form the first and second features.
A nonwoven fabric comprising heat-fusible conjugate fibers (F1, F2) intersecting and overlapping with each other and heat-fused constriction parts at the intersection regions of the heat-fusible conjugate fibers, wherein when a virtual line extending in the overlapping direction (Zl) of the heat-fusible conjugate fibers through the center of an intersection region is defined as a center line (Al), the heat-fused constriction parts have a surface which is recessed toward the center line, wherein the distance between the respective axis lines (L1, L2) of the heat-fusible conjugate fibers (F1, F2) that are heat-fused through a heat-fused constriction part is larger than the sum of the fiber radius (r1, r2) of each heat-fusible conjugate fiber, wherein the nonwoven fabric has a thickness of 0.5 to 3.0 mm under a load of 3.0 gf/cm 2 and a specific volume of 6 to 300 cm 3 /g, wherein the nonwoven fabric has a plurality of heat-fused parts at the intersection regions of the heat-fusible conjugate fibers intersecting and overlapping with each other, and wherein the proportion of the number of the heat-fused constriction parts to the total number of the heat-fused parts included in a predetermined region of the nonwoven fabric is 1/10 to 9/10. wherein when a virtual line extending in the overlapping direction (Zl) of the heat-fusible conjugate fibers through the center of an intersection region is defined as a center line (Al), the heat-fused constriction parts have a surface which is recessed toward the center line, wherein the distance between the respective axis lines (L1, L2) of the heat-fusible conjugate fibers (F1, F2) that are heat-fused through a heat-fused constriction part is larger than the sum of the fiber radius (r1, r2) of each heat-fusible conjugate fiber, wherein the nonwoven fabric has a thickness of 0.5 to 3.0 mm under a load of 3.0 gf/cm 2 and a specific volume of 6 to 300 cm 3 /g, wherein the nonwoven fabric has a plurality of heat-fused parts at the intersection regions of the heat-fusible conjugate fibers intersecting and overlapping with each other, and wherein the proportion of the number of the heat-fused constriction parts to the total number of the heat-fused parts included in a predetermined region of the nonwoven fabric is 1/10 to 9/10.
A method of fragmenting positively charged peptide ions in an RF field mass spectrometer or an RF'field ion containment device, wherein a gas-phase anion is used to transfer an electron to a positively charged sample ion which is a peptide ion, resulting in the fragmentation of the positively charged sample ion.
A wall flow type particulate filter adapted to be arranged in an exhaust passage of an internal combustion engine in which combustion is performed in an excess of oxygen, for trapping particulate matter in exhaust gas, the particulate filter trapping ash together with the particulate matter, the particulate filter characterized in that the particulate filter carries a solid acid and the solid acid has an acid strength which is higher than the acid strength of sulfurous acid and lower than the acid strength of sulfuric acid.
A semiconductor light emitting device, comprising: a semiconductor layer stack including a light emitting layer between an n-type semiconductor layer and a p-type semiconductor layer; a substrate on which the semiconductor layer stack is mounted; an electrode disposed on a light extraction surface opposite to the surface of the semiconductor layer stack which is mounted on the substrate; and a plurality of concaves/convexes on the light extraction surface, wherein the plurality of concaves/convexes are disposed in a first area of the light extraction surface and in a second area (90,90a,90b,90c,90d) of the light extraction surface; wherein the second area (90,90a,90b,90c,90d) is located between the first area and the electrode and is adjacent to the interface between the electrode and the semiconductor layer stack; wherein the base end of the concaves/convexes disposed in the first area is located to be closer to the light emitting layer than the interface; and wherein the base end of the concaves/convexes disposed in the second area (90, 90a, 90b, 90c, 90d) is located to be closer to the interface than the base end of the concaves/convexes in the first area, characterised in that the height from the base end to the top end of the concaves/ convexes in the first area is greater than the height from the base end to the top end of the concaves/convexes in the second area (90, 90a, 90b, 90c, 90d). a semiconductor layer stack including a light emitting layer between an n-type semiconductor layer and a p-type semiconductor layer; a substrate on which the semiconductor layer stack is mounted; an electrode disposed on a light extraction surface opposite to the surface of the semiconductor layer stack which is mounted on the substrate; and a plurality of concaves/convexes on the light extraction surface, wherein the plurality of concaves/convexes are disposed in a first area of the light extraction surface and in a second area (90,90a,90b,90c,90d) of the light extraction surface; wherein the second area (90,90a,90b,90c,90d) is located between the first area and the electrode and is adjacent to the interface between the electrode and the semiconductor layer stack; wherein the base end of the concaves/convexes disposed in the first area is located to be closer to the light emitting layer than the interface; and wherein the base end of the concaves/convexes disposed in the second area (90, 90a, 90b, 90c, 90d) is located to be closer to the interface than the base end of the concaves/convexes in the first area, characterised in that the height from the base end to the top end of the concaves/ convexes in the first area is greater than the height from the base end to the top end of the concaves/convexes in the second area (90, 90a, 90b, 90c, 90d).
A granule suitable for feed comprising an enzyme, wherein the granule has a particle size of 50-2000 μm, characterized in that the granule comprises a mixture of the enzyme and a copper ion donor in an amount between 1 and 600 Cu 2+ /enzyme protein molecule.
A method of wireless communications at a user equipment, UE, comprising: establishing communication with a base station network equipment over a first radio access technology, RAT, and a second RAT; identifying a coupling between the first RAT and the second RAT in the communication with the base station network equipment, wherein identifying the coupling indicates that the communication with the base station network equipment is supported by at least one same bearer, characterized by: determining that a handover to a target base station network equipment would affect an ability to continue communicating network traffic supported by the at least one same bearer over both the first RAT and the second RAT at a current rate; and adapting, a handover procedure for a potentially affected RAT (215, 220) based on the identified coupling between the first RAT and the second RAT and the determination. establishing communication with a base station network equipment over a first radio access technology, RAT, and a second RAT; identifying a coupling between the first RAT and the second RAT in the communication with the base station network equipment, wherein identifying the coupling indicates that the communication with the base station network equipment is supported by at least one same bearer, characterized by: determining that a handover to a target base station network equipment would affect an ability to continue communicating network traffic supported by the at least one same bearer over both the first RAT and the second RAT at a current rate; and adapting, a handover procedure for a potentially affected RAT (215, 220) based on the identified coupling between the first RAT and the second RAT and the determination. determining that a handover to a target base station network equipment would affect an ability to continue communicating network traffic supported by the at least one same bearer over both the first RAT and the second RAT at a current rate; and adapting, a handover procedure for a potentially affected RAT (215, 220) based on the identified coupling between the first RAT and the second RAT and the determination.
Method for the unbalance compensation of vehicle wheels, in which adhesive weight elements are glued onto at least one determined compensation surface of a wheel rim bowl of a disk wheel with a balancing head, wherein the adhesive weight elements in the form of an endless weight strand are supplied to the balancing head, which includes a feed device, by which the endless weight strand is supplied in a controlled manner to a following roll-on roller, by which the beginning of the endless weight strand is pressed onto the beginning of a compensation surface and thereafter is rolled-on, whereby the adhesive weight elements are cut-off from the endless weight strand in a determined length before or during the pressing-on onto the compensation surface, characterized in that the balancing head is connected in a frictionally force-transmitting manner with an execution arm of a program-controlled handling device and is controlled so that it positions the adhesive weight elements on the compensation surface and presses the adhesive weight elements on by a radial motion and by a subsequent tangential motion rolls the adhesive weight elements on to the inner wall of the wheel rim bowl, that the endless weight strand is supplied externally along the execution arm in a feed hose of the feed device, and a protective film is removed from the adhesive surface before or during the transfer to the roll-on roller directly before the roll-on process, wherein a length cut-off device is provided in the feed advance direction before the roll-on roller or integrated in the roll-on roller, by which length cut-off device the endless weight strand, which is guided past, is cut-off in the determined length to individual adhesive weight elements.