mhurhangee/ep-ind-claims huggingface dataset:
Spray cap to be placed on a pressurized gas container having - a shell part and - an actuating element with an actuating face (3.2) for triggering the spray mechanism, wherein the shell part and actuating element are movably connected and wherein the connection between the actuating element and shell part permits a folding movement motion, characterized in that - the shell part has, in its periphery, an aperture or opening (2.1), and - the actuating element has a projection (3.1) arranged spaced apart for connection of the shell part and actuating element, wherein the projection (3.1) passes through the aperture or the opening (2.1) of the shell part and wherein the edge of the aperture or the opening (2.1) is not touched by the projection in the relaxed state of the actuating element, and wherein the connection between shell part and actuating element is formed as a hinge or film hinge (2.2). - a shell part and - an actuating element with an actuating face (3.2) for triggering the spray mechanism, wherein the shell part and actuating element are movably connected and wherein the connection between the actuating element and shell part permits a folding movement motion, characterized in that wherein the shell part and actuating element are movably connected and wherein the connection between the actuating element and shell part permits a folding movement motion, characterized in that - the shell part has, in its periphery, an aperture or opening (2.1), and - the actuating element has a projection (3.1) arranged spaced apart for connection of the shell part and actuating element, wherein the projection (3.1) passes through the aperture or the opening (2.1) of the shell part and wherein the edge of the aperture or the opening (2.1) is not touched by the projection in the relaxed state of the actuating element, and wherein the connection between shell part and actuating element is formed as a hinge or film hinge (2.2). wherein the projection (3.1) passes through the aperture or the opening (2.1) of the shell part and wherein the edge of the aperture or the opening (2.1) is not touched by the projection in the relaxed state of the actuating element, and wherein the connection between shell part and actuating element is formed as a hinge or film hinge (2.2).
A device for holding in readiness at least one tool insert with a housing in which at least one opening is provided, wherein in the opening a sleeve is provided, which is retained in the opening by a locking device (5, 10, 12, 19) and the tool insert is held in the sleeve by a clamping device (5, 10, 13, 20), and wherein different sleeves with identical outer diameter, but varying inner diameter can be inserted into the opening, characterised in that the locking device (5, 10, 12, 19) and the clamping device (5, 10, 13, 20) together represent a springloaded locking and clamping pin.
A power sourcing equipment, comprising: an input terminal configured to receive a power signal; an output terminal electrically coupled to a powered device via a coaxial cable, the coaxial cable being configured to transmit the power signal from the power sourcing equipment to the powered device or transmit a data signal from the powered device to the power sourcing equipment; a switch coupled between the input terminal and the output terminal, the switch controlling an electrical connection between the input terminal and the output terminal; and a device detection circuit coupled to the output terminal and the input terminal, the device detection circuit being configured to detect whether the data signal is being transmitted from the powered device to the power sourcing equipment, and in response to a determination that the data signal is not being transmitted from the powered device to the power sourcing equipment, control an operation of the switch based on an electrical parameter associated with the powered device. an input terminal configured to receive a power signal; an output terminal electrically coupled to a powered device via a coaxial cable, the coaxial cable being configured to transmit the power signal from the power sourcing equipment to the powered device or transmit a data signal from the powered device to the power sourcing equipment; a switch coupled between the input terminal and the output terminal, the switch controlling an electrical connection between the input terminal and the output terminal; and a device detection circuit coupled to the output terminal and the input terminal, the device detection circuit being configured to detect whether the data signal is being transmitted from the powered device to the power sourcing equipment, and in response to a determination that the data signal is not being transmitted from the powered device to the power sourcing equipment, control an operation of the switch based on an electrical parameter associated with the powered device.
A method for classifying a biological sample with respect to treatment with an inhibitor of the tyrosine kinase activity of EGFR, the method comprising: (a) contacting a biological sample obtained from a human patient with a set of chromosomal hybridization probes under conditions sufficient to enable hybridization of the probes to chromosomes in the sample wherein (i) one probe is designed to detect copy number of human Chromosome locus 10q23.3 in cells in the sample and (ii) one probe is designed to detect copy number of human Chromosome locus 3q26.3 in cells in the sample; (b) determining copy number for each of human Chromosome locus 10q23.3 and human chromosome locus 3q26.3; and (c) classifying the sample as resistant to treatment with an inhibitor of the tyrosine kinase activity of EGFR based on results of step (b), as having a copy number profile of 10q23.3 loss and 3q26.3 gain, relative to normal copy number for each. (a) contacting a biological sample obtained from a human patient with a set of chromosomal hybridization probes under conditions sufficient to enable hybridization of the probes to chromosomes in the sample wherein (i) one probe is designed to detect copy number of human Chromosome locus 10q23.3 in cells in the sample and (ii) one probe is designed to detect copy number of human Chromosome locus 3q26.3 in cells in the sample; (b) determining copy number for each of human Chromosome locus 10q23.3 and human chromosome locus 3q26.3; and (c) classifying the sample as resistant to treatment with an inhibitor of the tyrosine kinase activity of EGFR based on results of step (b), as having a copy number profile of 10q23.3 loss and 3q26.3 gain, relative to normal copy number for each.
An article of footwear, the article of footwear comprising: an upper and a sole structure; an automated tensioning system that is configured to adjust a tension level of the article of footwear from a first tension level to a second tension level, wherein the first tension level is greater than the second tension level; a charging assembly configured to magnetically couple with an external charging device, the charging assembly comprising: an internal charging device a housing; and a ferromagnetic material,and a sensor, arranged to provide information to the automated tensioning system when the charging assembly is connected to the external charging device. an upper and a sole structure; an automated tensioning system that is configured to adjust a tension level of the article of footwear from a first tension level to a second tension level, wherein the first tension level is greater than the second tension level; a charging assembly configured to magnetically couple with an external charging device, the charging assembly comprising: an internal charging device a housing; and a ferromagnetic material,and an internal charging device a housing; and a ferromagnetic material,and a sensor, arranged to provide information to the automated tensioning system when the charging assembly is connected to the external charging device.
A silicone ice cream cone, comprising: a base; a stem extending upward from the base, wherein the stem has a cavity in its interior to receive ice cream; an upper portion having a greater diameter relative to the stem, wherein a slope of an interior surface of the upper portion gradually transitions from a vertical orientation to a substantially horizontal orientation; a spiral ridge positioned on an exterior of the ice cream cone, wherein the spiral ridge extends from a bottom portion of the stem toward at least an upper portion of the stem. a base; a stem extending upward from the base, wherein the stem has a cavity in its interior to receive ice cream; an upper portion having a greater diameter relative to the stem, wherein a slope of an interior surface of the upper portion gradually transitions from a vertical orientation to a substantially horizontal orientation; a spiral ridge positioned on an exterior of the ice cream cone, wherein the spiral ridge extends from a bottom portion of the stem toward at least an upper portion of the stem.
A phosphor comprising an inorganic substance comprising an Eu element; an M element, wherein M is at least one kind of element selected from a group consisting of Al, Y, La, and Gd; a Si element; a nitrogen element; and optionally at least one kind of element selected from a group consisting of an M element, wherein M is a Li element; an M element wherein M is at least one kind of element selected from a group consisting of Mg, Ca, Ba, and Sr; and an oxygen element; the phosphor emitting light having a local maximum value of a emission peak at a wavelength in a range of 760 nm or more and 850 nm or less upon irradiation by an excitation source; wherein the inorganic substance is represented by a composition of M a Eu b M c M d Si e O f N g; where a + b + c + d + e + f + g = 1; wherein parameters a, b, c, d, e, f, and g are represented by values respectively satisfying: 0 ≤ a ≤ 0.01, 0.006 ≤ b ≤ 0.15, 0 ≤ c ≤ 0.15, 0.001 ≤ d ≤ 0.07, 0.3 ≤ e ≤ 0.35, 0 ≤ f ≤ 0.05, and 0.5 ≤ g ≤ 0.56. an M element, wherein M is at least one kind of element selected from a group consisting of Al, Y, La, and Gd; a Si element; a nitrogen element; and optionally at least one kind of element selected from a group consisting of an M element, wherein M is a Li element; an M element wherein M is at least one kind of element selected from a group consisting of Mg, Ca, Ba, and Sr; and an oxygen element; the phosphor emitting light having a local maximum value of a emission peak at a wavelength in a range of 760 nm or more and 850 nm or less upon irradiation by an excitation source; wherein the inorganic substance is represented by a composition of M a Eu b M c M d Si e O f N g; where a + b + c + d + e + f + g = 1; wherein parameters a, b, c, d, e, f, and g are represented by values respectively satisfying: 0 ≤ a ≤ 0.01, 0.006 ≤ b ≤ 0.15, 0 ≤ c ≤ 0.15, 0.001 ≤ d ≤ 0.07, 0.3 ≤ e ≤ 0.35, 0 ≤ f ≤ 0.05, and 0.5 ≤ g ≤ 0.56. 0 ≤ a ≤ 0.01, 0.006 ≤ b ≤ 0.15, 0 ≤ c ≤ 0.15, 0.001 ≤ d ≤ 0.07, 0.3 ≤ e ≤ 0.35, 0 ≤ f ≤ 0.05, and 0.5 ≤ g ≤ 0.56.
An apparatus for generating gas phase ions from a sample substance comprising: (a) a sample holder; (b) a sample held by said sample holder; (c) a reagent ion source (24, 58) for generating gas phase reagent ions (71, 75, 90); (d) ion optics comprising electrodes (28, 30, 32, 44, 47, 48, 61, 63); (e) means (34, 35, 49, 50, 51, 56, 64, 65) for applying a first set of voltages to said electrodes (28, 30, 32, 44, 47, 48, 61, 63) to direct said gas phase reagent ions onto said sample; (f) a pulsed light source for generating light pulses directed at said sample to produce gas phase sample related ions (88, 90) and neutral species; (g) means (34, 35, 49, 50, 51, 56, 64, 65) for applying a second set of voltages to said electrodes (28, 30, 32, 44, 47, 48, 61, 63) to direct said gas phase sample related ions (88, 90) away from said sample; (h) means (34, 35, 49, 50, 51, 56, 64, 65) for changing between said first set of voltages and said second set of voltages; and, (i) means for synchronizing said means (34, 35, 49, 50, 51, 56, 64, 65) for changing between said first set of voltages and said second set of voltages just prior to, during or just after said light pulses are directed to said sample. (a) a sample holder; (b) a sample held by said sample holder; (c) a reagent ion source (24, 58) for generating gas phase reagent ions (71, 75, 90); (d) ion optics comprising electrodes (28, 30, 32, 44, 47, 48, 61, 63); (e) means (34, 35, 49, 50, 51, 56, 64, 65) for applying a first set of voltages to said electrodes (28, 30, 32, 44, 47, 48, 61, 63) to direct said gas phase reagent ions onto said sample; (f) a pulsed light source for generating light pulses directed at said sample to produce gas phase sample related ions (88, 90) and neutral species; (g) means (34, 35, 49, 50, 51, 56, 64, 65) for applying a second set of voltages to said electrodes (28, 30, 32, 44, 47, 48, 61, 63) to direct said gas phase sample related ions (88, 90) away from said sample; (h) means (34, 35, 49, 50, 51, 56, 64, 65) for changing between said first set of voltages and said second set of voltages; and, (i) means for synchronizing said means (34, 35, 49, 50, 51, 56, 64, 65) for changing between said first set of voltages and said second set of voltages just prior to, during or just after said light pulses are directed to said sample.
An organic amine ester derivative of 2-(α-hydroxypentyl)benzoic acid, wherein the organic amine ester derivative of 2-(α-hydroxypentyl)benzoic acid is a compound having the following structure, or the organic amine ester derivative of 2-(α-hydroxypentyl)benzoic acid is a pharmaceutically acceptable salt formed by a compound having the following structure and an inorganic acid or organic acid:
An imaging-based bar code system comprising: a scanning arrangement comprising a sensor assembly for capturing an image from a target object, the sensor assembly having a field-of-view focused by an optical arrangement onto a sensor array located within the sensor assembly; and an illumination system comprising a first illumination assembly and a second illumination assembly, each of the first and second assemblies including an illumination source (42a, 42b) directing illumination through a light pipe (46a, 46b) to generate an illumination pattern (48a, 48b) directed towards a target object, wherein the light pipe (46a, 46b) comprises an input surface (461a, 461b) and an output surface (462a, 462b), the light pipe (46a, 46b) being configured to change the light intensity distribution at its output surface (462a, 462b); characterized in that each of the first and second assemblies further includes a lens (44a, 44b); and the light pipe in the first illumination assembly is configured to change the illumination from the illumination source to generate a first gradient illumination distribution pattern, through the lens, in the first illumination assembly; and the light pipe in the second illumination assembly is configured to change the illumination from the illumination source to generate a second gradient illumination distribution pattern, through the lens in the second illumination assembly; and wherein the first gradient illumination distribution pattern and the second gradient illumination distribution pattern are combined to form an improved illumination distribution pattern within the field-of-view by compensating an increase of light intensity of the first gradient illumination distribution pattern with a decrease of light intensity of the second gradient illumination distribution pattern. a scanning arrangement comprising a sensor assembly for capturing an image from a target object, the sensor assembly having a field-of-view focused by an optical arrangement onto a sensor array located within the sensor assembly; and an illumination system comprising a first illumination assembly and a second illumination assembly, each of the first and second assemblies including an illumination source (42a, 42b) directing illumination through a light pipe (46a, 46b) to generate an illumination pattern (48a, 48b) directed towards a target object, wherein the light pipe (46a, 46b) comprises an input surface (461a, 461b) and an output surface (462a, 462b), the light pipe (46a, 46b) being configured to change the light intensity distribution at its output surface (462a, 462b);
An energy harvesting sensor network, comprising: a plurality of energy harvesting sensors (200-1, 200-2,...) operating as nodes, wherein each of said energy harvesting sensors is configured to operate in accordance with a predefined communication protocol; and a server configured to wirelessly communicate with the energy harvesting sensors; wherein the predefined communication protocol includes a RECEIVE state in which a node transmits a ready to receive "RTR" beacon indicating to other nodes that the node is awake and has sufficient energy to receive and retransmit a data packet, and in which the node then listens for a neighboring transmitter node to begin transmission of a data packet. a plurality of energy harvesting sensors (200-1, 200-2,...) operating as nodes, wherein each of said energy harvesting sensors is configured to operate in accordance with a predefined communication protocol; and a server configured to wirelessly communicate with the energy harvesting sensors; wherein the predefined communication protocol includes a RECEIVE state in which a node transmits a ready to receive "RTR" beacon indicating to other nodes that the node is awake and has sufficient energy to receive and retransmit a data packet, and in which the node then listens for a neighboring transmitter node to begin transmission of a data packet.
A hydraulic system for a working machine, the system comprising: a first electric machine connected to a first hydraulic machine; a second electric machine connected to a second hydraulic machine, an output side of the second hydraulic machine being connected to an input side of the first hydraulic machine; at least one hydraulic consumer hydraulically coupled to an output side of the first hydraulic machine via a supply line and configured to be powered by the first hydraulic machine; and a valve arrangement arranged between the hydraulic consumer and the first and second hydraulic machines, characterized in that the valve arrangement is configured to control a return flow of hydraulic fluid from the hydraulic consumer to either the input side of the first hydraulic machine or an input side of the second hydraulic machine based on a requested output pressure from the first hydraulic machine. a first electric machine connected to a first hydraulic machine; a second electric machine connected to a second hydraulic machine, an output side of the second hydraulic machine being connected to an input side of the first hydraulic machine; at least one hydraulic consumer hydraulically coupled to an output side of the first hydraulic machine via a supply line and configured to be powered by the first hydraulic machine; and a valve arrangement arranged between the hydraulic consumer and the first and second hydraulic machines, characterized in that the valve arrangement is configured to control a return flow of hydraulic fluid from the hydraulic consumer to either the input side of the first hydraulic machine or an input side of the second hydraulic machine based on a requested output pressure from the first hydraulic machine.
A method for gain calibration at a plurality of imaging parameters for a tomosynthesis sweep, the method comprising: performing (502,602) one or more tomosynthesis sweeps to acquire a plurality of tomosynthesis projection x-ray images, each of the plurality of tomosynthesis projection x-ray images associated with one of the plurality of imaging parameters; generating a high-dose x-ray image by averaging the plurality of tomosynthesis projection x-ray images; generating a high-dose gain map associated with the high-dose x-ray image; generating a plurality of low-dose gain maps, each of the plurality of low-dose gain maps associated with one of the plurality of tomosynthesis projection x-ray images associated with one of the plurality of imaging parameters; decomposing each of the plurality of low-dose gain maps into a plurality of component levels; extracting low-resolution components from the plurality of component levels for each of the plurality of low-dose gain maps; and for each of the plurality of imaging parameters, combining the high-dose gain map with the each of the low-resolution components of the low-dose gain maps to generate a final gain map for each of the plurality of imaging parameters. performing (502,602) one or more tomosynthesis sweeps to acquire a plurality of tomosynthesis projection x-ray images, each of the plurality of tomosynthesis projection x-ray images associated with one of the plurality of imaging parameters; generating a high-dose x-ray image by averaging the plurality of tomosynthesis projection x-ray images; generating a high-dose gain map associated with the high-dose x-ray image; generating a plurality of low-dose gain maps, each of the plurality of low-dose gain maps associated with one of the plurality of tomosynthesis projection x-ray images associated with one of the plurality of imaging parameters; decomposing each of the plurality of low-dose gain maps into a plurality of component levels; extracting low-resolution components from the plurality of component levels for each of the plurality of low-dose gain maps; and for each of the plurality of imaging parameters, combining the high-dose gain map with the each of the low-resolution components of the low-dose gain maps to generate a final gain map for each of the plurality of imaging parameters.