mhurhangee/ep-ind-claims huggingface dataset:
A method for spatially tagging nucleic acids of a biological specimen, comprising: a) providing a solid support comprising a plurality of nucleic acid probes, attached at randomly located positions on the solid support, wherein; (i) the plurality of nucleic acid probes comprise a target capture sequence and a spatial tag sequence that differs from spatial tag sequences of other nucleic acid probes in the plurality, and (ii) the spatial tag sequences at the randomly located positions were determined prior to step (b); b) contacting a biological specimen with the plurality of nucleic acid probes on the solid support; c) hybridizing one or more of the target capture sequences of the plurality of nucleic acid probes to nucleic acids from the biological specimen that are proximal to the plurality of nucleic acid probes; and d) extending the one or more target capture sequences to produce extended probes that comprise sequences from the nucleic acids and the spatial tag sequences, thereby spatially tagging the nucleic acids of the biological specimen. a) providing a solid support comprising a plurality of nucleic acid probes, attached at randomly located positions on the solid support, wherein; (i) the plurality of nucleic acid probes comprise a target capture sequence and a spatial tag sequence that differs from spatial tag sequences of other nucleic acid probes in the plurality, and (ii) the spatial tag sequences at the randomly located positions were determined prior to step (b); (i) the plurality of nucleic acid probes comprise a target capture sequence and a spatial tag sequence that differs from spatial tag sequences of other nucleic acid probes in the plurality, and (ii) the spatial tag sequences at the randomly located positions were determined prior to step (b); b) contacting a biological specimen with the plurality of nucleic acid probes on the solid support; c) hybridizing one or more of the target capture sequences of the plurality of nucleic acid probes to nucleic acids from the biological specimen that are proximal to the plurality of nucleic acid probes; and d) extending the one or more target capture sequences to produce extended probes that comprise sequences from the nucleic acids and the spatial tag sequences, thereby spatially tagging the nucleic acids of the biological specimen.
A vortex ring generation device for releasing an airflow in a form of a vortex ring from a release port, the device comprising: a plurality of gas chamber units each having an air chamber, the plurality of gas chamber units each including: a fixing member forming the air chamber; and a movable member moving to push air out of the air chamber, the movable members of all of the gas chamber units being coupled together to form one movable body, the vortex ring generation device further comprising: an actuator configured to drive the movable body; characterized by a communication path allowing the air chambers of the plurality of gas chamber units to communicate with each other; wherein each air chamber communicates with the release port; the actuator being connected to an end portion of the movable body. a plurality of gas chamber units each having an air chamber, the plurality of gas chamber units each including: a fixing member forming the air chamber; and a movable member moving to push air out of the air chamber, the movable members of all of the gas chamber units being coupled together to form one movable body, the vortex ring generation device further comprising: an actuator configured to drive the movable body; characterized by a communication path allowing the air chambers of the plurality of gas chamber units to communicate with each other; wherein each air chamber communicates with the release port; the actuator being connected to an end portion of the movable body. a fixing member forming the air chamber; and a movable member moving to push air out of the air chamber, the movable members of all of the gas chamber units being coupled together to form one movable body, the vortex ring generation device further comprising: an actuator configured to drive the movable body; characterized by a communication path allowing the air chambers of the plurality of gas chamber units to communicate with each other; wherein each air chamber communicates with the release port; the actuator being connected to an end portion of the movable body. an actuator configured to drive the movable body; characterized by a communication path allowing the air chambers of the plurality of gas chamber units to communicate with each other; wherein each air chamber communicates with the release port; the actuator being connected to an end portion of the movable body.
A portable data terminal having a housing in surrounding relation to one or more components for use in outputting decoded data, said portable data terminal comprising: a memory; a control circuit communicatively coupled to the memory; an encoded information reader unit responsive to a signal from the control circuit, the encoded information reader unit comprising a data collection hardware device for scanning a bar code and for use in outputting of decoded bar code data; an interface bus communicatively coupled to one or more of the memory, the control circuit, and the encoded information reader unit; an environmentally responsive device coupled to the interface bus, the environmentally responsive device comprising a sensing portion in communication with an environment external to the housing in a manner such that said environmentally responsive device is adapted for capturing contemporaneously with the scanning of a bar code an environmental reading for the environment; and wherein the portable data terminal is characterized by being operative in a first sensing mode wherein the terminal stores in a file the decoded bar code data and the environmental reading, and stores said file in said memory. a memory; a control circuit communicatively coupled to the memory; an encoded information reader unit responsive to a signal from the control circuit, the encoded information reader unit comprising a data collection hardware device for scanning a bar code and for use in outputting of decoded bar code data; an interface bus communicatively coupled to one or more of the memory, the control circuit, and the encoded information reader unit; an environmentally responsive device coupled to the interface bus, the environmentally responsive device comprising a sensing portion in communication with an environment external to the housing in a manner such that said environmentally responsive device is adapted for capturing contemporaneously with the scanning of a bar code an environmental reading for the environment; and wherein the portable data terminal is characterized by being operative in a first sensing mode wherein the terminal stores in a file the decoded bar code data and the environmental reading, and stores said file in said memory.
Shackle connecting device, which being intended for its application in the connection of shackles to a chain of links or other elements, of great size and weight, comprises a bolt, where the joint between the shackle and the corresponding link of the chain is via said bolt, the shackle connecting device further comprising two parts (3,4) related to each other in a mountable/removable manner, one of the parts of which determines a guiding means for the bolt for coupling between the link of the chain and the bridge which makes up the shackle itself, while the other part determines mooring means of the bolt itself, characterized in that the part that determines the guiding means for the bolt is constituted by a cylindrical and hollow body with a longitudinal side slot through which a lever, fixed to the bolt itself by means of a pin, emerges and is movable.
An airfoil for a gas turbine engine comprising: pressure and suction side walls (86, 88) spaced apart from one another and joined at leading and trailing edges (82, 84) to provide the airfoil having an exterior surface that extends in a radial direction to a tip, a camber line at the tip extending from the leading edge to the trailing edge,; pressure and suction side shelves (94, 96) arranged in the exterior surface at the tip on opposing sides of the camber line respectively in the pressure and suction side walls (86, 88), the camber line separating the pressure and suction side shelves (94, 96); a cooling passage arranged between the pressure and suction walls (86, 88) that extends toward the tip, and cooling holes fluidly interconnecting the cooling passage and the pressure and suction side shelves (94, 96);and a plateau at the tip proud of and separating the pressure and suction side shelves (94, 96); characterized in that: the plateau is arranged along the camber line, the tip includes a perimeter, and the plateau extends to the perimeter at the leading and trailing edges (82, 84); and the plateau extends uninterrupted along the camber line from the leading edge to the trailing edge. pressure and suction side walls (86, 88) spaced apart from one another and joined at leading and trailing edges (82, 84) to provide the airfoil having an exterior surface that extends in a radial direction to a tip, a camber line at the tip extending from the leading edge to the trailing edge,; pressure and suction side shelves (94, 96) arranged in the exterior surface at the tip on opposing sides of the camber line respectively in the pressure and suction side walls (86, 88), the camber line separating the pressure and suction side shelves (94, 96); a cooling passage arranged between the pressure and suction walls (86, 88) that extends toward the tip, and cooling holes fluidly interconnecting the cooling passage and the pressure and suction side shelves (94, 96);and a plateau at the tip proud of and separating the pressure and suction side shelves (94, 96); characterized in that: the plateau is arranged along the camber line, the tip includes a perimeter, and the plateau extends to the perimeter at the leading and trailing edges (82, 84); and the plateau extends uninterrupted along the camber line from the leading edge to the trailing edge.
An air conditioner (400;600) comprising a plurality of outdoor units (401,402;601,602), wherein a first outdoor unit (401;601) comprises: a converter (410;610) for receiving commercial AC power and converting the received commercial AC power into DC power; and at least one first outdoor unit fan inverter (422;622) for converting the DC power into AC power to drive at least one first outdoor unit fan motor (452;652), and a second outdoor unit (402;602) comprises: at least one second outdoor fan inverter (426;626) for receiving the DC power which has been converted by the converter (410;610) and converting the received DC power into AC power to drive at least one second outdoor unit fan motor (456;656), characterised in that the first outdoor unit (401;601) further comprises a first outdoor unit filter unit (405;605) for removing noise between the commercial AC power and the converter (410;610). a converter (410;610) for receiving commercial AC power and converting the received commercial AC power into DC power; and at least one first outdoor unit fan inverter (422;622) for converting the DC power into AC power to drive at least one first outdoor unit fan motor (452;652), and a second outdoor unit (402;602) comprises: at least one second outdoor fan inverter (426;626) for receiving the DC power which has been converted by the converter (410;610) and converting the received DC power into AC power to drive at least one second outdoor unit fan motor (456;656), characterised in that the first outdoor unit (401;601) further comprises a first outdoor unit filter unit (405;605) for removing noise between the commercial AC power and the converter (410;610). at least one second outdoor fan inverter (426;626) for receiving the DC power which has been converted by the converter (410;610) and converting the received DC power into AC power to drive at least one second outdoor unit fan motor (456;656), characterised in that the first outdoor unit (401;601) further comprises a first outdoor unit filter unit (405;605) for removing noise between the commercial AC power and the converter (410;610).
A signal analyzing method, comprising: generating a body electrical signal according to a plurality of first input signals (V1, V2) and a plurality of second input signals (V3, V4); generating a first filtered signal by filtering a first difference signal (δM1) corresponding to the plurality of first input signals (V1, V2); generating a second filtered signal by filtering a second difference signal (∂M2) corresponding to the plurality of second input signals (V3, V4); and generating a lead signal (ECG_L2) according to the body electrical signal, the first filtered signal and the second filtered signal, wherein the plurality of first input signals (V1, V2) are transmitted from a plurality of first electrodes (102, 104) of a first electrode group, and the second input signals (V3, V4) are transmitted from a plurality of second electrodes (110, 112) of a second electrode group, characterized in that the body electrical signal is generated according to the difference of the sum of the plurality of first input signals (V1, V2) and the sum of the plurality of second input signals (V3, V4). generating a body electrical signal according to a plurality of first input signals (V1, V2) and a plurality of second input signals (V3, V4); generating a first filtered signal by filtering a first difference signal (δM1) corresponding to the plurality of first input signals (V1, V2); generating a second filtered signal by filtering a second difference signal (∂M2) corresponding to the plurality of second input signals (V3, V4); and generating a lead signal (ECG_L2) according to the body electrical signal, the first filtered signal and the second filtered signal, wherein the plurality of first input signals (V1, V2) are transmitted from a plurality of first electrodes (102, 104) of a first electrode group, and the second input signals (V3, V4) are transmitted from a plurality of second electrodes (110, 112) of a second electrode group, characterized in that the body electrical signal is generated according to the difference of the sum of the plurality of first input signals (V1, V2) and the sum of the plurality of second input signals (V3, V4).
A composite fan blade having an airfoil with a leading edge and a trailing edge and a dovetail root, wherein the dovetail root comprises: a first pressure face and a second pressure face; a lower horizontal face connecting the pressure faces at the bottom of the dovetail; and a first and a second dovetail runout fillet connecting the first and the second pressure faces, respectively to the airfoil; characterised in that each pressure face is angled outward at 65 degrees to 75 degrees from horizontal. a first pressure face and a second pressure face; a lower horizontal face connecting the pressure faces at the bottom of the dovetail; and a first and a second dovetail runout fillet connecting the first and the second pressure faces, respectively to the airfoil; characterised in that each pressure face is angled outward at 65 degrees to 75 degrees from horizontal.
Fall arrester for a cable holding device which can be installed without a roof penetration, which cable holding device has at least one post, wherein the fall arrester has multiple layers at least in one section of the fall arrester and - a post stabiliser and - a post anchorage are integrated into the multi-layer section, wherein - the post stabiliser and/or - the post anchorage has multiple layers at least in one section thereof, wherein the multi-layer section of the fall arrester has at least one layer made of composite material reinforced with glass fibers and/or with carbon fibers (FRP layer), and said FRP layer also forms a layer - of the multi-layer post stabiliser and/or - of the multi-layer post anchorage, wherein the post stabiliser surrounds the surface shell of the post at least partially, characterized in that the post stabiliser extends in vertical direction at least up to a third of the total height of the post, wherein the post stabiliser comprises at least on layer (4e, 4f) made of a glass fibre reinforced composite material (FRP layer), wherein the FRP layer (4e, 4f) forms a continuous layer with the FRP layer of the multi-layer fall arrester. - a post stabiliser and - a post anchorage are integrated into the multi-layer section, wherein - the post stabiliser and/or - the post anchorage has multiple layers at least in one section thereof, wherein the multi-layer section of the fall arrester has at least one layer made of composite material reinforced with glass fibers and/or with carbon fibers (FRP layer), and said FRP layer also forms a layer has multiple layers at least in one section thereof, wherein the multi-layer section of the fall arrester has at least one layer made of composite material reinforced with glass fibers and/or with carbon fibers (FRP layer), and said FRP layer also forms a layer - of the multi-layer post stabiliser and/or - of the multi-layer post anchorage, the post stabiliser extends in vertical direction at least up to a third of the total height of the post, wherein the post stabiliser comprises at least on layer (4e, 4f) made of a glass fibre reinforced composite material (FRP layer), wherein the FRP layer (4e, 4f) forms a continuous layer with the FRP layer of the multi-layer fall arrester.
A biological tissue transdermal patch which is to be used by being attached to a biological tissue, comprising: a battery part including a positive electrode, a negative electrode and an electrically-conductive layer; and an active ingredient which is housed out of contact with the battery part, wherein for use of the biological tissue transdermal patch, the active ingredient may be brought into contact with the battery part to start battery reaction; the biological tissue transdermal patch being characterized in that the battery part further includes a separator (203A, 203B) containing no electrolyte, such that the battery reaction may be started by impregnating the separator with the active ingredient. a battery part including a positive electrode, a negative electrode and an electrically-conductive layer; and an active ingredient which is housed out of contact with the battery part, wherein for use of the biological tissue transdermal patch, the active ingredient may be brought into contact with the battery part to start battery reaction; the biological tissue transdermal patch being characterized in that the battery part further includes a separator (203A, 203B) containing no electrolyte, such that the battery reaction may be started by impregnating the separator with the active ingredient.
A light control sheet comprising: a first transparent electrode layer; a second transparent electrode layer; a light control layer that is located between the first transparent electrode layer and the second transparent electrode layer; a first transparent support layer that is located on a side of the first transparent electrode layer facing away from the light control layer and has a support surface that supports the first transparent electrode layer; and a second transparent support layer that is located on a side of the second transparent electrode layer facing away from the light control layer, wherein the first transparent electrode layer includes a first electrode element and a second electrode element, the first electrode element and the second electrode element are separate layered members arranged along the support surface, and are electrically insulated from each other by a groove extending along the support surface, a depth direction of the groove is a thickness direction of the first transparent electrode layer, and the groove has a depth that allows the groove to pass through the first transparent electrode layer but not to pass through the first transparent support layer, characterized in that a light control material constituting the light control layer is filled in a portion of the groove that extends in the first transparent support layer. a first transparent electrode layer; a second transparent electrode layer; a light control layer that is located between the first transparent electrode layer and the second transparent electrode layer; a first transparent support layer that is located on a side of the first transparent electrode layer facing away from the light control layer and has a support surface that supports the first transparent electrode layer; and a second transparent support layer that is located on a side of the second transparent electrode layer facing away from the light control layer, wherein the first transparent electrode layer includes a first electrode element and a second electrode element, the first electrode element and the second electrode element are separate layered members arranged along the support surface, and are electrically insulated from each other by a groove extending along the support surface, a depth direction of the groove is a thickness direction of the first transparent electrode layer, and the groove has a depth that allows the groove to pass through the first transparent electrode layer but not to pass through the first transparent support layer,
A heterocyclic compound represented by the following Formula 1: wherein: X and Y are each independently O or S, R1 to R12 are each independently hydrogen; deuterium; a halogen group; a nitrile group; a nitro group; a hydroxy group; a substituted or unsubstituted alkyl group; a substituted or unsubstituted cycloalkyl group; a substituted or unsubstituted alkoxy group; a substituted or unsubstituted aryloxy group; a substituted or unsubstituted alkylthioxy group; a substituted or unsubstituted arylthioxy group; a substituted or unsubstituted alkylsulfoxy group; a substituted or unsubstituted arylsulfoxy group; a substituted or unsubstituted aryl group; a substituted or unsubstituted fluorenyl group; a substituted or unsubstituted carbazole group; or a substituted or unsubstituted heterocyclic group comprising one or more of N, O and S atoms, provided that R2 or R3 is represented by - n -A, n is 0 or 1, L is a substituted or unsubstituted phenylene group; a substituted or unsubstituted biphenylene group; a substituted or unsubstituted divalent naphthalene group; or a substituted or unsubstituted anthracenylene group, and A is a substituted or unsubstituted heterocyclic group, or a substituted or unsubstituted aryl group. X and Y are each independently O or S, R1 to R12 are each independently hydrogen; deuterium; a halogen group; a nitrile group; a nitro group; a hydroxy group; a substituted or unsubstituted alkyl group; a substituted or unsubstituted cycloalkyl group; a substituted or unsubstituted alkoxy group; a substituted or unsubstituted aryloxy group; a substituted or unsubstituted alkylthioxy group; a substituted or unsubstituted arylthioxy group; a substituted or unsubstituted alkylsulfoxy group; a substituted or unsubstituted arylsulfoxy group; a substituted or unsubstituted aryl group; a substituted or unsubstituted fluorenyl group; a substituted or unsubstituted carbazole group; or a substituted or unsubstituted heterocyclic group comprising one or more of N, O and S atoms, provided that R2 or R3 is represented by - n -A, n is 0 or 1, L is a substituted or unsubstituted phenylene group; a substituted or unsubstituted biphenylene group; a substituted or unsubstituted divalent naphthalene group; or a substituted or unsubstituted anthracenylene group, and A is a substituted or unsubstituted heterocyclic group, or a substituted or unsubstituted aryl group.