mhurhangee/patent-ind-claim-en huggingface dataset:
A method of killing a larva of a sessile invertebrate in a settlement stage in water, comprising the step of: irradiating light to the larva in the settlement stage, characterized in that the light comprises the wavelength range between 409 and 412 nm and comprises the spectrum of a part of the wavelength range between 400 and 440 nm and wherein an LED emitter, a mercury lamp, or a fluorescent tube is utilized for irradiation of the light, wherein the light irradiated to the larva in the settlement stage has a spectral irradiance of 89.6946 μWcm -2 nm -1 or higher in the wavelength range between 409 nm and 412 nm and wherein the light is irradiated for 3 hours or more.
A control method of a dryer comprising a heat pump comprising an inverter compressor , and performing a quick driving course shorter than a normal course, the control method comprising: determining (S910) a driving condition of the dryer for performing the quick driving course; and adjusting (S930) at least one of an electric power supplied to the inverter compressor and a driving velocity of the inverter compressor based on the driving condition, wherein at least one of the electric power and the driving velocity of the inverter compressor is set to be large or high, compared with an electric power and a driving velocity of the inverter compressor driving in a normal state of the normal course in the adjusting at least one of the electric power supplied to the inverter compressor and the driving velocity of the inverter compressor . determining (S910) a driving condition of the dryer for performing the quick driving course; and adjusting (S930) at least one of an electric power supplied to the inverter compressor and a driving velocity of the inverter compressor based on the driving condition, wherein at least one of the electric power and the driving velocity of the inverter compressor is set to be large or high, compared with an electric power and a driving velocity of the inverter compressor driving in a normal state of the normal course in the adjusting at least one of the electric power supplied to the inverter compressor and the driving velocity of the inverter compressor .
A layered body comprising: a polymer film (A, 12), the polymer film (A, 12) including an organic piezoelectric material having a weight average molecular weight of from 50,000 to 1,000,000, having a standardized molecular orientation MORc at a reference thickness of 50 μm of from 1.0 to 15.0 as measured by a microwave transmission molecular orientation analyzer, having a degree of crystallinity of from 20% to 80% as measured by a DSC method, and having an internal haze of 50% or less with respect to visible light, wherein the MORc is determined according to the following equation: MORc = tc / t × MOR − 1 + 1 wherein MOR is the molecular orientation ratio measured by the microwave measurement method described in the section entitled "Standardized Molecular Orientation MORc" and tc is the reference thickness and t is the thickness of polymer film (A, 12); and a peelable protective film (B, 14, 14A) that contacts one main face of the polymer film (A, 12), characterized in that a maximum indentation depth hmax on a face of the protective film (B, 14, 14A) that contacts the polymer film (A, 12) is from 53 nm to 100 nm as measured by a nanoindentation method as described in the section entitled "Measurement of Characteristics" of the description. a polymer film (A, 12), the polymer film (A, 12) including an organic piezoelectric material having a weight average molecular weight of from 50,000 to 1,000,000, having a standardized molecular orientation MORc at a reference thickness of 50 μm of from 1.0 to 15.0 as measured by a microwave transmission molecular orientation analyzer, having a degree of crystallinity of from 20% to 80% as measured by a DSC method, and having an internal haze of 50% or less with respect to visible light, wherein the MORc is determined according to the following equation: MORc = tc / t × MOR − 1 + 1 wherein MOR is the molecular orientation ratio measured by the microwave measurement method described in the section entitled "Standardized Molecular Orientation MORc" and tc is the reference thickness and t is the thickness of polymer film (A, 12); and a peelable protective film (B, 14, 14A) that contacts one main face of the polymer film (A, 12), characterized in that a maximum indentation depth hmax on a face of the protective film (B, 14, 14A) that contacts the polymer film (A, 12) is from 53 nm to 100 nm as measured by a nanoindentation method as described in the section entitled "Measurement of Characteristics" of the description.
A process for preparing a catalyst bed system for use in adiabatic non-oxidative dehydrogenation processes comprising the following steps: (a) preparing a dehydrogenation catalyst by dispersing or compounding an active component selected from an oxide of a metal of Group 4, Group 5, Group 6 and combinations thereof on or with a support selected from aluminum oxide, aluminas, alumina monohydrate, alumina trihydrate, alumina-silica, transition aluminas, alpha-alumina, silica, silicates, aluminates, calcined hydrotalcites, zeolites and combinations thereof, (b) physically mixing the dehydrogenation catalyst prepared in step (a) with granular alpha-alumina material of similar particle size to the catalyst, characterized in that the process further comprises the following steps: (c) preparing a secondary component by dispersing or compounding a heat-generating inert material selected from copper, cerium, yttrium, scandium, manganese, iron, cobalt, nickel, silver, bismuth and combinations thereof on or with a carrier capable of supporting the heat-generating inert material, wherein said secondary component is catalytically inert with respect to dehydrogenation reactions or to cracking or to coking and generates heat after being exposed to reducing and/or to oxidizing reaction conditions, and (d) physically combining the mixture obtained in step (b) with the secondary component prepared in step (c). (a) preparing a dehydrogenation catalyst by dispersing or compounding an active component selected from an oxide of a metal of Group 4, Group 5, Group 6 and combinations thereof on or with a support selected from aluminum oxide, aluminas, alumina monohydrate, alumina trihydrate, alumina-silica, transition aluminas, alpha-alumina, silica, silicates, aluminates, calcined hydrotalcites, zeolites and combinations thereof, (b) physically mixing the dehydrogenation catalyst prepared in step (a) with granular alpha-alumina material of similar particle size to the catalyst, (c) preparing a secondary component by dispersing or compounding a heat-generating inert material selected from copper, cerium, yttrium, scandium, manganese, iron, cobalt, nickel, silver, bismuth and combinations thereof on or with a carrier capable of supporting the heat-generating inert material, wherein said secondary component is catalytically inert with respect to dehydrogenation reactions or to cracking or to coking and generates heat after being exposed to reducing and/or to oxidizing reaction conditions, and (d) physically combining the mixture obtained in step (b) with the secondary component prepared in step (c).
A connector assembly for a liquid manifold within a server rack , the connector assembly comprising: a pipe configured to connect to the liquid manifold and including a proximal end and a distal end , the pipe having a flexible portion configured to accommodate at least one of lateral or vertical manipulation of the pipe while the pipe remains connected to the liquid manifold at the proximal end ; and a first connector and a second connector configured to form a liquid-tight connection when coupled together, wherein the first connector is connected to the distal end of the pipe and the second connector is configured to connect to a component of a plurality of components within the server rack , for supplying coolant from the liquid manifold to the component , characterized in that the pipe and the first connector are disposed and connected with each other along a straight line (L), and when the second connector is directed towards the first connector to connect to the first connector , the flexible portion is configured to accommodate a system tolerance to facilitate the liquid-tight connection between the first connector and the second connector ; the first connector is configured to couple with the second connector when the component is inserted into a slot of the server rack ; and when the component is inserted into a slot of the server rack, the component is disposed within the server rack along a first direction, and the pipe , the first connector and the second connector are disposed along a second direction, and the second direction is the same as the first direction. a pipe configured to connect to the liquid manifold and including a proximal end and a distal end , the pipe having a flexible portion configured to accommodate at least one of lateral or vertical manipulation of the pipe while the pipe remains connected to the liquid manifold at the proximal end ; and a first connector and a second connector configured to form a liquid-tight connection when coupled together, wherein the first connector is connected to the distal end of the pipe and the second connector is configured to connect to a component of a plurality of components within the server rack , for supplying coolant from the liquid manifold to the component , characterized in that the pipe and the first connector are disposed and connected with each other along a straight line (L), and when the second connector is directed towards the first connector to connect to the first connector , the flexible portion is configured to accommodate a system tolerance to facilitate the liquid-tight connection between the first connector and the second connector ; the first connector is configured to couple with the second connector when the component is inserted into a slot of the server rack ; and when the component is inserted into a slot of the server rack, the component is disposed within the server rack along a first direction, and the pipe , the first connector and the second connector are disposed along a second direction, and the second direction is the same as the first direction.
A method of forming a microspeaker device having a substantially planar compliant member to act as an acoustic diaphragm, comprising: creating a membrane having one or more elastomeric layers which are at least partially cured; providing another elastomeric layer on the membrane, the another elastomeric layer being in an uncured state; positioning one or more of a bobbin and a housing each having an end such that the end of either one or both of the housing and bobbin extend at least partially into the another elastomeric layer, without extending into the one or more at least partially cured elastomeric layers, the bobbin being positioned inside the housing; and curing the another elastomeric layer such that the another elastomeric layer is secured to the membrane and to both of the housing and bobbin. creating a membrane having one or more elastomeric layers which are at least partially cured; providing another elastomeric layer on the membrane, the another elastomeric layer being in an uncured state; positioning one or more of a bobbin and a housing each having an end such that the end of either one or both of the housing and bobbin extend at least partially into the another elastomeric layer, without extending into the one or more at least partially cured elastomeric layers, the bobbin being positioned inside the housing; and curing the another elastomeric layer such that the another elastomeric layer is secured to the membrane and to both of the housing and bobbin.
A method for selecting cells and/or part(s) of a cell(s) based on at least one characteristic in an EWOD (electrowetting on dielectric) or oEWOD (optically mediated electrowetting on dielectric) device, the method comprising: i. providing a test panel of microdroplets, comprising at least a medium or a medium and at least one cell; ii. providing at least one reporter panel of microdroplets, containing one or more reporter entities; iii. merging microdroplets of the test panel with microdroplets of the at least one reporter panel to form a panel of merged assay microdroplets; and iv. monitoring the panel of assay microdroplets using a detection system capable of detecting a change in said reporter entity based upon the presence of at least one characteristic, and v. selecting a subset of microdroplets from a panel on the basis of the change in the reporter entity, said subset containing the selected cells; wherein the test panel of microdroplets comprising at least medium is created by splitting a panel of microdroplets containing at least one cell and a medium, further creating a reference panel of microdroplets containing at least one cell; and/or wherein the test panel of microdroplets comprising at least one cell are split into at least two panels of microdroplets before or after any of steps (i) to (v), said panels being: a test panel of microdroplets comprising at least medium or medium and at least one cell, suitable for merging with microdroplets of a reporter entity panel; and a reference panel of microdroplets containing at least one cell. i. providing a test panel of microdroplets, comprising at least a medium or a medium and at least one cell; ii. providing at least one reporter panel of microdroplets, containing one or more reporter entities; iii. merging microdroplets of the test panel with microdroplets of the at least one reporter panel to form a panel of merged assay microdroplets; and iv. monitoring the panel of assay microdroplets using a detection system capable of detecting a change in said reporter entity based upon the presence of at least one characteristic, and v. selecting a subset of microdroplets from a panel on the basis of the change in the reporter entity, said subset containing the selected cells; wherein the test panel of microdroplets comprising at least medium is created by splitting a panel of microdroplets containing at least one cell and a medium, further creating a reference panel of microdroplets containing at least one cell; and/or wherein the test panel of microdroplets comprising at least one cell are split into at least two panels of microdroplets before or after any of steps (i) to (v), said panels being: a test panel of microdroplets comprising at least medium or medium and at least one cell, suitable for merging with microdroplets of a reporter entity panel; and a reference panel of microdroplets containing at least one cell.
A primer set for amplifying all the exons of PKD1 and PDK2 genes under a single set of PCR conditions, wherein the primer set comprises primer pairs 1 to 18 shown in Table 1 below. Table 1 Primer pair Primer Specific recognition region 1 1F Region of positions 48916 to 48930 of SEQ ID NO: 37 1R Complementary region of positions 46427 to 46413 of SEQ ID NO: 37 2 2F Region of positions 31431 to 31445 of SEQ ID NO: 37 2R Complementary region of positions 27875 to 27861 of SEQ ID NO: 37 3 3F Region of positions 27875 to 27889 of SEQ ID NO: 37 3R Complementary region of positions 24227 to 24213 of SEQ ID NO: 37 4 4F Region of positions 24247 to 24261 of SEQ ID NO: 37 4R Complementary region of positions 18933 to 18919 of SEQ ID NO: 37 5 5F Region of positions 19226 to 19240 of SEQ ID NO: 37 5R Complementary region of positions 16698 to 16684 of SEQ ID NO: 37 6 6F Region of positions 16393 to 16407 of SEQ ID NO: 37 6R Complementary region of positions 12889 to 12875 of SEQ ID NO: 37 7 7F Region of positions 12193 to 12207 of SEQ ID NO: 37 7R Complementary region of positions 8534 to 8520 of SEQ ID NO: 37 8 8F Region of positions 6284 to 6298 of SEQ ID NO: 37 8R Complementary region of positions 3261 to 3247 of SEQ ID NO: 37 9 9F Region of positions 3525 to 3539 of SEQ ID NO: 37 9R Complementary region of positions 28 to 14 of SEQ ID NO: 37 10 10F Complementary region of positions 25 to 11 of SEQ ID NO: 38 10R Region of positions 1537 to 1551 of SEQ ID NO: 38 11 11F Complementary region of positions 11432 to 11418 of SEQ ID NO: 38 11R Region of positions 12623 to 12637 of SEQ ID NO: 38 12 12F Complementary region of positions 28901 to 28887 of SEQ ID NO: 38 12R Region of positions 31264 to 31278 of SEQ ID NO: 38 13 13F Complementary region of positions 35718 to 35704 of SEQ ID NO: 38 13R Region of positions 39836 to 39850 of SEQ ID NO: 38 14 14F Complementary region of positions 44259 to 44245 of SEQ ID NO: 38 14R Region of positions 45415 to 45429 of SEQ ID NO: 38 15 15F Complementary region of positions 47754 to 47740 of SEQ ID NO: 38 15R Region of positions 52221 to 52235 of SEQ ID NO: 38 16 16F Complementary region of positions 53806 to 53792 of SEQ ID NO: 38 16R Region of positions 55288 to 55302 of SEQ ID NO: 38 17 17F Complementary region of positions 57914 to 57900 of SEQ ID NO: 38 17R Region of positions 60808 to 60822 of SEQ ID NO: 38 18 18F Complementary region of positions 67328 to 67314 of SEQ ID NO: 38 18R Region of positions 68792 to 68806 of SEQ ID NO: 38
An organic photosensitive device comprising: a transparent substrate; a first electrode disposed over the substrate; a second electrode disposed over the first electrode; a photoactive region positioned between the first electrode and the second electrode, wherein the photoactive region transmits light at wavelengths in a transparent range; and a reflector configured to partially reflect one or more desired wavelengths in the transparent range of the photoactive region; characterized in that the reflector is disposed between the transparent substrate and the first electrode, wherein the reflector and the second electrode define an optical microcavity, wherein the second electrode reflects greater than or equal to 10% of incident light at one or more wavelengths, and wherein the reflector exhibits reflectivity less than 5% at any wavelength where the photoactive region exhibits absorptivity greater than 40%. a transparent substrate; a first electrode disposed over the substrate; a second electrode disposed over the first electrode; a photoactive region positioned between the first electrode and the second electrode, wherein the photoactive region transmits light at wavelengths in a transparent range; and a reflector configured to partially reflect one or more desired wavelengths in the transparent range of the photoactive region; characterized in that the reflector is disposed between the transparent substrate and the first electrode, wherein the reflector and the second electrode define an optical microcavity, wherein the second electrode reflects greater than or equal to 10% of incident light at one or more wavelengths, and wherein the reflector exhibits reflectivity less than 5% at any wavelength where the photoactive region exhibits absorptivity greater than 40%.
A laser cutting device, comprising a laser source with one or more of a wavelength within a range from about 2.69 to about 2.80 microns and a wavelength of about 2.94 microns; and a handpiece (400; 500; 600) for laser treating a tissue target surface, comprising: a window (410; 510; 610) coupled to receive electromagnetic energy from the laser source and output electromagnetic energy; a reflector (415; 515; 615) aligned to redirect electromagnetic energy outputted from the window; and a tip (420; 520; 620) positioned to receive electromagnetic energy from the reflector and shaped to generate an output of electromagnetic energy that is focused at a selected distance from an emitting surface (521; 621) of the tip, the tip including at least one convex surface and the selected distance ranging from about 4 mm to about 10 mm, further comprising a fluid output adapted to emit fluid particles, whereby electromagnetic energy emitted from the emitting surface (521; 621) imparts energy into the fluid particles to thereby apply disruptive forces to the target surface. a laser source with one or more of a wavelength within a range from about 2.69 to about 2.80 microns and a wavelength of about 2.94 microns; and a handpiece (400; 500; 600) for laser treating a tissue target surface, comprising: a window (410; 510; 610) coupled to receive electromagnetic energy from the laser source and output electromagnetic energy; a reflector (415; 515; 615) aligned to redirect electromagnetic energy outputted from the window; and a tip (420; 520; 620) positioned to receive electromagnetic energy from the reflector and shaped to generate an output of electromagnetic energy that is focused at a selected distance from an emitting surface (521; 621) of the tip, the tip including at least one convex surface and the selected distance ranging from about 4 mm to about 10 mm, further comprising a fluid output adapted to emit fluid particles, whereby electromagnetic energy emitted from the emitting surface (521; 621) imparts energy into the fluid particles to thereby apply disruptive forces to the target surface. a window (410; 510; 610) coupled to receive electromagnetic energy from the laser source and output electromagnetic energy; a reflector (415; 515; 615) aligned to redirect electromagnetic energy outputted from the window; and a tip (420; 520; 620) positioned to receive electromagnetic energy from the reflector and shaped to generate an output of electromagnetic energy that is focused at a selected distance from an emitting surface (521; 621) of the tip, the tip including at least one convex surface and the selected distance ranging from about 4 mm to about 10 mm, further comprising a fluid output adapted to emit fluid particles, whereby electromagnetic energy emitted from the emitting surface (521; 621) imparts energy into the fluid particles to thereby apply disruptive forces to the target surface.
A method for determining the level of expression of Glucocorticoid-inducible TNF receptor (GITR) on tumor infiltrating lymphocytes (TILs) and/or tumor cells in a tissue sample, comprising (a) contacting a tissue sample from a patient with an antibody, or antigen-binding portion thereof, comprising heavy chain variable region CDR1, CDR2, and CDR3 comprising the amino acid sequences set forth in SEQ ID NOs: 5-7, respectively, and light chain variable region CDR1, CDR2, and CDR3 comprising the amino acid sequences set forth in SEQ ID NOs: 8-10, respectively, wherein the antibody or antigen binding portion thereof binds to human GITR, (b) detecting the binding of the antibody to GITR on TILs and tumor cells of the tissue sample by immunohistochemistry; and optionally (c) staining the tissue sample with markers of TILs and/or tumor cells and/or with hematoxylin and eosin, to identify the TILs and/or tumor cells that were identified as GITR positive in step (b). (a) contacting a tissue sample from a patient with an antibody, or antigen-binding portion thereof, comprising heavy chain variable region CDR1, CDR2, and CDR3 comprising the amino acid sequences set forth in SEQ ID NOs: 5-7, respectively, and light chain variable region CDR1, CDR2, and CDR3 comprising the amino acid sequences set forth in SEQ ID NOs: 8-10, respectively, wherein the antibody or antigen binding portion thereof binds to human GITR, (b) detecting the binding of the antibody to GITR on TILs and tumor cells of the tissue sample by immunohistochemistry; and optionally (c) staining the tissue sample with markers of TILs and/or tumor cells and/or with hematoxylin and eosin, to identify the TILs and/or tumor cells that were identified as GITR positive in step (b).