mhurhangee/patent-ind-claim-en huggingface dataset:
A manufacturing apparatus for a multi-ply security paper , which has - a first wet end , which forms a first paper web , and a second wet end , which forms a second paper web , - a device for applying security elements to the first paper web , - a couching device for connecting the first and the second paper web to a total paper web , wherein the couching device is arranged downstream of the device for applying security elements, and - a device for producing depressions and/or holes in the first paper web , i) wherein the device for producing depressions and/or holes comprises the device for applying security elements , and the device for producing depressions and/or holes simultaneously produces a hole or a depression in the first paper web in a first region and applies at least one security element in a second region; or ii) wherein the device for producing depressions and/or holes is arranged upstream of the device for applying security elements , produces depressions in the first paper web and configures each depression for receiving one of the security elements and at a distance from the others of the depressions , wherein the device for applying places each security element in one of the depressions . - a first wet end , which forms a first paper web , and a second wet end , which forms a second paper web , - a device for applying security elements to the first paper web , - a couching device for connecting the first and the second paper web to a total paper web , wherein the couching device is arranged downstream of the device for applying security elements, and - a device for producing depressions and/or holes in the first paper web , i) wherein the device for producing depressions and/or holes comprises the device for applying security elements , and the device for producing depressions and/or holes simultaneously produces a hole or a depression in the first paper web in a first region and applies at least one security element in a second region; or ii) wherein the device for producing depressions and/or holes is arranged upstream of the device for applying security elements , produces depressions in the first paper web and configures each depression for receiving one of the security elements and at a distance from the others of the depressions , wherein the device for applying places each security element in one of the depressions . i) wherein the device for producing depressions and/or holes comprises the device for applying security elements , and the device for producing depressions and/or holes simultaneously produces a hole or a depression in the first paper web in a first region and applies at least one security element in a second region; or ii) wherein the device for producing depressions and/or holes is arranged upstream of the device for applying security elements , produces depressions in the first paper web and configures each depression for receiving one of the security elements and at a distance from the others of the depressions , wherein the device for applying places each security element in one of the depressions .
A foil bearing , comprising foils which are arranged at a plurality of portions in a rotation direction of a shaft member to be supported, the foils each having a front end located on the rotation direction side and a rear end located on a side opposite to the rotation direction side, the foils each forming a top foil portion (Tf) comprising a bearing surface (S1, S2, S3) in a region including the front end of the foil and a back foil portion (Bf), which is arranged behind the top foil portion (Tf) by causing the top foil portion (Tf) to override on the back foil portion (Bf) of adjacent one of the foils in a region including the rear end of the foil , wherein one of the foils is configured as an intermediate foil, wherein, of the two of the foils adjacent to the intermediate foil on the rotation direction side and the side opposite to the rotation direction side, the rear end of the foil on the rotation direction side and the front end of the foil on the side opposite to the rotation direction side have contour shapes different from each other, and a gap (C1) in the rotation direction is secured between the rear end of the foil on the rotation direction side and the front end of the foil on the side opposed to the rotation direction side, wherein a width of the gap (C1) is set to be non-uniform in a direction orthogonal to the rotation direction, and wherein a support span of the intermediate foil sandwiched between the rear end of the foil on the rotation direction side and the front end of the foil on the side opposite to the rotation direction side is varied. the foils each having a front end located on the rotation direction side and a rear end located on a side opposite to the rotation direction side, the foils each forming a top foil portion (Tf) comprising a bearing surface (S1, S2, S3) in a region including the front end of the foil and a back foil portion (Bf), which is arranged behind the top foil portion (Tf) by causing the top foil portion (Tf) to override on the back foil portion (Bf) of adjacent one of the foils in a region including the rear end of the foil , wherein one of the foils is configured as an intermediate foil, wherein, of the two of the foils adjacent to the intermediate foil on the rotation direction side and the side opposite to the rotation direction side, the rear end of the foil on the rotation direction side and the front end of the foil on the side opposite to the rotation direction side have contour shapes different from each other, and a gap (C1) in the rotation direction is secured between the rear end of the foil on the rotation direction side and the front end of the foil on the side opposed to the rotation direction side, wherein a width of the gap (C1) is set to be non-uniform in a direction orthogonal to the rotation direction, and wherein a support span of the intermediate foil sandwiched between the rear end of the foil on the rotation direction side and the front end of the foil on the side opposite to the rotation direction side is varied.
Prefabricated building block (1, 1A to 1E, 10) comprising longitudinal channels having a first open end, the channels defining voids occupying 40 to 75% of the total volume of the building block, characterized in that said block is compressible, exhibiting an elasto-plastic behavior having an elastic threshold of between 1 and 2 MPa and a plastic plateau of approximately 40 to 75% deformation at non-zero load and at most 4 MPa.
A multiple-glazed glass unit adapted to separate an indoor space and an outdoor space, the multiple-glazed glass unit comprising a pair of glass panes opposed across a gap layer to be spaced at a predetermined distance from each other, wherein a first low-emissivity (Low-E) film is formed on one principal surface of one of the pair of glass panes that is located closer to the indoor space, the one principal surface facing the gap layer , and wherein a low-emissivity (Low-E) film is not formed on either of the principal surfaces of the other of the pair of glass panes that is located closer to the outdoor space, a second low-emissivity film is formed on the other principal surface of the one glass pane , the other principal surface facing the indoor space, the second low-emissivity film formed on the other principal surface facing the indoor space has an arithmetic average surface roughness Ra of 14 nm or less, and the gap layer is a vacuum layer having a thickness of 0.1 to 1 mm. a first low-emissivity (Low-E) film is formed on one principal surface of one of the pair of glass panes that is located closer to the indoor space, the one principal surface facing the gap layer , and wherein a low-emissivity (Low-E) film is not formed on either of the principal surfaces of the other of the pair of glass panes that is located closer to the outdoor space, a second low-emissivity film is formed on the other principal surface of the one glass pane , the other principal surface facing the indoor space, the second low-emissivity film formed on the other principal surface facing the indoor space has an arithmetic average surface roughness Ra of 14 nm or less, and the gap layer is a vacuum layer having a thickness of 0.1 to 1 mm.
A method of reading data from a nonvolatile memory device , the nonvolatile memory device comprising N rows (R to R(N)) of memory cells (C to C (P,N)) and N word lines (WL , ..., WL (n)) coupled thereto, respectively, the method comprising: applying a first pre-pulse voltage level (Vp1) above ground voltage level to an nth word line (WL(n)) while applying a second pre-pulse voltage level (Vp2) to an adj acent word line adj acent to the nth word line (WL (n)), the nth word line being a selected word line for data readout and the adjacent word line being an unselected word line, the second pre-pulse voltage level (Vp2) exceeding the first pre-pulse voltage level (Vp1), and n being an integer ranging from 1 to N; grounding the nth word line (WL (n)) while maintaining the second pre-pulse voltage level (Vp2) on the adjacent word line; pulling a voltage level on the nth word line (WL(n)) towards a start read voltage level; characterized in that the start read voltage level is a negative voltage level for reading a program state, and prior to the voltage level on the nth word line (WL(n)) reaching the start read voltage level, driving a voltage level on the adjacent word line to the first pre-pulse voltage level. applying a first pre-pulse voltage level (Vp1) above ground voltage level to an nth word line (WL(n)) while applying a second pre-pulse voltage level (Vp2) to an adj acent word line adj acent to the nth word line (WL (n)), the nth word line being a selected word line for data readout and the adjacent word line being an unselected word line, the second pre-pulse voltage level (Vp2) exceeding the first pre-pulse voltage level (Vp1), and n being an integer ranging from 1 to N; grounding the nth word line (WL (n)) while maintaining the second pre-pulse voltage level (Vp2) on the adjacent word line; pulling a voltage level on the nth word line (WL(n)) towards a start read voltage level; characterized in that the start read voltage level is a negative voltage level for reading a program state, and prior to the voltage level on the nth word line (WL(n)) reaching the start read voltage level, driving a voltage level on the adjacent word line to the first pre-pulse voltage level.
A transparent glass-ceramic of lithium aluminosilicate type containing a solid solution of β-quartz as the main crystalline phase, the composition of which, free of arsenic oxide and antimony oxide, except for inevitable traces, expressed in percentages by weight of oxides, comprises: 64.5% to 66.5% of SiO 2 ; 19.0% to 20.6% of Al 2 O 3 ; 3.0% to 3.6% of Li 2 O; 0 to 1% of MgO; 1.7% to 3.4% of ZnO; 2% to 3% of BaO; 0 to 3% of SrO; 0 to 1% of CaO; 2% to 4% of TiO 2 ; 1% to 2% of ZrO 2 ; 0 to 1% of Na 2 O; 0 to 1% of K 2 O; with Na 2 O + K 2 O + BaO + SrO + CaO ≤ 6%; optionally up to 2% of at least one fining agent comprising SnO 2 ; and optionally up to 2% of at least one coloring agent. 64.5% to 66.5% of SiO 2 ; 19.0% to 20.6% of Al 2 O 3 ; 3.0% to 3.6% of Li 2 O; 0 to 1% of MgO; 1.7% to 3.4% of ZnO; 2% to 3% of BaO; 0 to 3% of SrO; 0 to 1% of CaO; 2% to 4% of TiO 2 ; 1% to 2% of ZrO 2 ; 0 to 1% of Na 2 O; 0 to 1% of K 2 O; with Na 2 O + K 2 O + BaO + SrO + CaO ≤ 6%; optionally up to 2% of at least one fining agent comprising SnO 2 ; and optionally up to 2% of at least one coloring agent.
A packaging system for an elongate tool comprising a distal end and a proximal end configured to be coupled to a surgical device , said packaging system comprising: a segmented packaging body (22; 122) comprising: a first distal section (42; 142) comprising a first boundary (46; 146) and a second boundary (48; 148); a second distal section (44; 144) coupled to said first distal section (42; 142) at said first boundary (46; 146) with said first and second distal sections (42; 142, 44; 144) configured to receive the distal end of the elongate tool ; and a proximal section configured to receive the proximal end of the elongate tool ; characterized by said proximal section being detachably coupled to said first distal section (42; 142) at said second boundary (48; 148). a first distal section (42; 142) comprising a first boundary (46; 146) and a second boundary (48; 148); a second distal section (44; 144) coupled to said first distal section (42; 142) at said first boundary (46; 146) with said first and second distal sections (42; 142, 44; 144) configured to receive the distal end of the elongate tool ; and a proximal section configured to receive the proximal end of the elongate tool ; characterized by said proximal section being detachably coupled to said first distal section (42; 142) at said second boundary (48; 148).
A bus-bar assembly comprising, a main bus-bar consisting of a first elongated flat portion and a second elongated flat portion , wherein a longitudinal side of the first elongated flat portion and a longitudinal side of the second elongated flat portion are joined with each other at a predetermined angle (α) such that the main bus-bar is V-shaped, wherein a thickness of each of said first elongated flat portion and said second elongated flat portion is non-uniform such that the thickness of each of said first elongated flat portion and said second elongated flat portion is gradually increased or decreased away from a joint area of said first elongated flat portion and said second elongated flat portion ; and a branch bus-bar comprising one or more planar portions for connecting with an electrical component and one or more bending segments extended from the planar portion, wherein at least one of the first and second elongated flat portions of the main bus-bar are arranged to be attached to the respective bending segments of the branch bus-bar .
The use of polymers which are obtainable by free-radically initiated copolymerization of monomer mixtures of (a) 2 to 70% by weight of a cationic monomer selected from the group consisting of 3-methyl-1-vinylimidazolium chloride and 3-methyl-1-vinylimidazolium methosulfate, (b) 22 to 97.98% N-vinylpyrrolidone, (c) 0 to 40% by weight of a further free-radically copolymerizable monomer, (d) 0.01 to 8% by weight of at least one crosslinking monomer having at least two ethylenically unsaturated, non-conjugated double bonds and (e) 0.01 to 8% by weight of a regulator in hair cosmetic preparations. (a) 2 to 70% by weight of a cationic monomer selected from the group consisting of 3-methyl-1-vinylimidazolium chloride and 3-methyl-1-vinylimidazolium methosulfate, (b) 22 to 97.98% N-vinylpyrrolidone, (c) 0 to 40% by weight of a further free-radically copolymerizable monomer, (d) 0.01 to 8% by weight of at least one crosslinking monomer having at least two ethylenically unsaturated, non-conjugated double bonds and (e) 0.01 to 8% by weight of a regulator in hair cosmetic preparations.
An in vitro method of classifying a sample of pleural fluid of a subject, wherein the subject has an abnormal accumulation of pleural fluid, said method comprising: determining the level of indicator nanoparticles in the pleural fluid of a subject to provide a test value, wherein the level of indicator nanoparticles is determined by nuclear magnetic resonance (NMR), wherein the indicator nanoparticles are very low density lipoproteins, low density lipoproteins or high density lipoproteins; using NMR to determine (i) the level of indicator nanoparticles in one or more known exudates, and (ii) the level of indicator nanoparticles in one or more known transudates, using a computer a) to determine the average level of indicator nanoparticles in the one or more known exudates and transudates to provide a control value, and b) to compare the test value to the control value; wherein pleural fluid with a higher test value compared to the control value is determined to be exudate and pleural fluid with a lower test value compared to the control value is determined to be transudate. determining the level of indicator nanoparticles in the pleural fluid of a subject to provide a test value, wherein the level of indicator nanoparticles is determined by nuclear magnetic resonance (NMR), wherein the indicator nanoparticles are very low density lipoproteins, low density lipoproteins or high density lipoproteins; using NMR to determine (i) the level of indicator nanoparticles in one or more known exudates, and (ii) the level of indicator nanoparticles in one or more known transudates, using a computer a) to determine the average level of indicator nanoparticles in the one or more known exudates and transudates to provide a control value, and b) to compare the test value to the control value; wherein pleural fluid with a higher test value compared to the control value is determined to be exudate and pleural fluid with a lower test value compared to the control value is determined to be transudate.
A duct section of a combustor section including an axially staged combustion system, the duct section comprising: an axially oriented primary fuel nozzle ; a primary combustion zone defined within a first duct downstream from the primary fuel nozzle ; a conical duct disposed downstream from the primary combustion zone , the conical duct receiving an aft end of the cylindrical duct ; an integrated exit piece disposed downstream from the conical duct , wherein the first duct , the conical duct , and the integrated exit piece at least partially form a hot gas path of the duct section ; a plurality of fuel injectors oriented radially inwardly with respect to an axial centerline of the duct section and disposed downstream from the primary combustion zone , wherein each fuel injector of the plurality of fuel injectors provides for injection of a secondary fuel-air mixture into the hot gas path , wherein one or more fuel injectors of the plurality of fuel injectors is distributed along at least one of the conical duct and the integrated exit piece , characterized in that the first duct is a cylindrical duct and at least one fuel injector of the plurality of fuel injectors is disposed along the cylindrical duct . an axially oriented primary fuel nozzle ; a primary combustion zone defined within a first duct downstream from the primary fuel nozzle ; a conical duct disposed downstream from the primary combustion zone , the conical duct receiving an aft end of the cylindrical duct ; an integrated exit piece disposed downstream from the conical duct , wherein the first duct , the conical duct , and the integrated exit piece at least partially form a hot gas path of the duct section ; a plurality of fuel injectors oriented radially inwardly with respect to an axial centerline of the duct section and disposed downstream from the primary combustion zone , wherein each fuel injector of the plurality of fuel injectors provides for injection of a secondary fuel-air mixture into the hot gas path , wherein one or more fuel injectors of the plurality of fuel injectors is distributed along at least one of the conical duct and the integrated exit piece , characterized in that the first duct is a cylindrical duct and at least one fuel injector of the plurality of fuel injectors is disposed along the cylindrical duct .
A method for a network management server to determine a root sequence index , the method comprising: determining whether to reassign a root sequence index of a cell managed by a base station , based on a random access channel, RACH, related statistical information including a ratio between a number of transmitted random access, RA, preamble signals and a number of transmitted scheduled transmission messages; determining the root sequence index to be reassigned to the cell based on the number of handovers between the cell and neighbor cells (502-507) thereof, in case that the root sequence index is determined to be reassigned; and transmitting the determined root sequence index to the base station . determining whether to reassign a root sequence index of a cell managed by a base station , based on a random access channel, RACH, related statistical information including a ratio between a number of transmitted random access, RA, preamble signals and a number of transmitted scheduled transmission messages; determining the root sequence index to be reassigned to the cell based on the number of handovers between the cell and neighbor cells (502-507) thereof, in case that the root sequence index is determined to be reassigned; and transmitting the determined root sequence index to the base station .
A beverage brewing machine, comprising: a kettle body including a container ; a water feeding device arranged within the container , comprising a flow guide cover provided with a water inlet and an outlet , a stirrer located in the flow guide cover and positioned on a bottom of the container , and a driving device for driving the stirrer to rotate, wherein the driving device is located below the container ; and a brewing device disposed above the flow guide cover and provided with a flow guide cavity and an accommodating cavity , wherein the accommodating cavity is communicated with the flow guide cavity , and is provided with a filtering hole ; wherein a heat conducting plate is provided on the bottom of the container and is connected to the flow guide cover , the flow guide cover comprises a hollow cavity and a bracket movably connected to the cavity and positioned on the heat conducting plate , the flow guide cavity is located above the outlet and is not in contact with the outlet , the stirrer is configured to perform a suction effect by stirring water in the flow guide cover , and water is sucked in through the water inlet of the flow guide cover , sprayed from the outlet to the flow guide cavity and flows into the accommodating cavity . a kettle body including a container ; a water feeding device arranged within the container , comprising a flow guide cover provided with a water inlet and an outlet , a stirrer located in the flow guide cover and positioned on a bottom of the container , and a driving device for driving the stirrer to rotate, wherein the driving device is located below the container ; and a brewing device disposed above the flow guide cover and provided with a flow guide cavity and an accommodating cavity , wherein the accommodating cavity is communicated with the flow guide cavity , and is provided with a filtering hole ; wherein a heat conducting plate is provided on the bottom of the container and is connected to the flow guide cover , the flow guide cover comprises a hollow cavity and a bracket movably connected to the cavity and positioned on the heat conducting plate , the flow guide cavity is located above the outlet and is not in contact with the outlet , the stirrer is configured to perform a suction effect by stirring water in the flow guide cover , and water is sucked in through the water inlet of the flow guide cover , sprayed from the outlet to the flow guide cavity and flows into the accommodating cavity .