mhurhangee/ep-ind-claims huggingface dataset:
A various-substance holder (11, 30, 50, 58, 63) comprising plural sets of particulate carriers to which plural types of chemical substances are or can be immobilized, and a carrier holding portion holding the plural sets of particulate carriers in a substantially stationary state such that the plural sets of particulate carriers can be externally measured, wherein at least one of the particulate carriers belonging to the plural sets of the particulate carriers, or each of the particulate carriers, or each set of the particulate carriers, are labeled according to chemical substances so as to be identifiable before the particulate carriers are introduced and held in the carrier holding portion, wherein the carrier holding portion includes a tip-like container having an installing opening that can be installed around a nozzle through which gas is sucked and discharged, and a mouth portion through which a fluid is allowed to flow in and out by sucking and discharging the gas, wherein the tip-like container has a storage portion which can store liquid and which has the installing opening, and a capillary which is in communication with the storage portion and which has the mouth portion at an end of the capillary opposite the storage portion, the capillary being formed to be thinner than the storage portion so as to be able to be inserted into various containers, and the particulate carriers are held in the capillary, and an entrapping portion (16a, 18a, 19) that entraps the particulate carriers in the capillary so that the particulate carriers can contact the fluid flowing in from the mouth portion, but are prevented from entering the storage portion, wherein the storage portion has a volume several times to several tens of times larger than a space in the capillary which can accommodate fluid, wherein a plurality of particulate carriers of the same size and shape are held in the capillary in a line along the axial direction of the capillary in the substantially stationary state, such that the particulate carriers are externally individually measureable, wherein each set of the particulate carriers has at least two separate particulate carriers, wherein the particulate carriers are labelled with a fluorescent substance so as to be mutually identifiable, and at least one of the two separate particulate carriers of at least the one set is a boundary particle which is a particle adapted to block light from the substance of the sets of the particulate carriers, wherein the boundary particle defines the boundary between the sets of the particulate carriers.
A method, comprising: forming a gray-tone resist over a device material, the forming the gray-tone resist comprising: disposing a resist material over the device material; and developing the resist material to form a gray-tone pattern; performing a cyclic-etch process, the cyclic-etch process comprising: etching a resist segment of the gray-tone pattern using a resist etch process selective to the resist material; etching a device segment of the device material using a device pattern etch process selective to the device material; and repeating the resist etch process for subsequent resist segments of the gray-tone pattern and etching subsequent device segments to form a device material pattern, the top surface of the device material pattern having a gradient; disposing a hardmask over the device material; patterning the hardmask to expose segments of the device material; and etching exposed segments of the device material to form a plurality of device structures having a variable depth corresponding to the gradient. forming a gray-tone resist over a device material, the forming the gray-tone resist comprising: disposing a resist material over the device material; and developing the resist material to form a gray-tone pattern; disposing a resist material over the device material; and developing the resist material to form a gray-tone pattern; performing a cyclic-etch process, the cyclic-etch process comprising: etching a resist segment of the gray-tone pattern using a resist etch process selective to the resist material; etching a device segment of the device material using a device pattern etch process selective to the device material; and repeating the resist etch process for subsequent resist segments of the gray-tone pattern and etching subsequent device segments to form a device material pattern, the top surface of the device material pattern having a gradient; etching a resist segment of the gray-tone pattern using a resist etch process selective to the resist material; etching a device segment of the device material using a device pattern etch process selective to the device material; and repeating the resist etch process for subsequent resist segments of the gray-tone pattern and etching subsequent device segments to form a device material pattern, the top surface of the device material pattern having a gradient; disposing a hardmask over the device material; patterning the hardmask to expose segments of the device material; and etching exposed segments of the device material to form a plurality of device structures having a variable depth corresponding to the gradient.
A relay control station that controls a repeater in a communication system in which a transmitter transmits data to a receiver serving any beam via the repeater including one or more beams, demultiplexed signals being obtained by the repeater demultiplexing a reception signal received from the transmitter the relay control station comprising: a power control unit that determines, on a basis of a ratio between each expected power value of the demultiplexed signals and power values of the demultiplexed signals measured by the repeater, a gain control amount provisional value for the demultiplexed signals and calculates a gain control value of the demultiplexed signals for the repeater on a basis of a ratio between a sum of the power values of the demultiplexed signals and a sum of products of the power values of the demultiplexed signals and the gain control amount provisional value, the ratio of the sums multiplied with the gain control amount provisional value, and a repeater interface unit that notifies the repeater of the gain control value calculated by the power control unit as a control amount used for gain control performed on the demultiplexed signals by the repeater. a power control unit that determines, on a basis of a ratio between each expected power value of the demultiplexed signals and power values of the demultiplexed signals measured by the repeater, a gain control amount provisional value for the demultiplexed signals and calculates a gain control value of the demultiplexed signals for the repeater on a basis of a ratio between a sum of the power values of the demultiplexed signals and a sum of products of the power values of the demultiplexed signals and the gain control amount provisional value, the ratio of the sums multiplied with the gain control amount provisional value, and a repeater interface unit that notifies the repeater of the gain control value calculated by the power control unit as a control amount used for gain control performed on the demultiplexed signals by the repeater.
A fetal-derived human neural stem cell comprising an exogenous polynucleotide coding for insulin-like growth factor 1 (IGF-1) wherein the IGF-1 is IGF-1 isoform 4 which comprises the nucleotide sequence set forth in SEQ ID NO: 1, wherein the IGF-1 nucleotide sequence is stably expressed, and wherein the fetal-derived human neural stem cells do not differentiate in culture even after more than sixty cell doublings, and wherein the neural stem cells were immortalized with a human c-myc cDNA fused at the 3' end with a cDNA fragment coding for the c-terminal ligand binding domain of human estrogen receptor.
A computer-implemented method of segmenting a digital image of a biological tissue, the computer including a processor and a memory operatively coupled to the processor, the method comprising: accessing, in the memory, a plurality of support vectors calculated from training data representing shapes of conforming biological unit exemplars and shapes of non-conforming biological unit exemplars, the plurality of support vectors defining a hyperplane in a vector space; accessing, in the memory, image data representing the digital image of the biological tissue; identifying, by the processor, a first shape at a scale level and a set of second constituent shapes (400a, 400b, 400c) at an adjacent lower scale level in the digital image using the image data, wherein the first shape at said scale level is constituted by the second set of constituent shapes (400a, 400b, 400c) at said lower scale level and comprises a union of the set of second constituent shapes (400a, 400b, 400c); mapping, by the processor, a first data point and a second data point into the vector space, the first data point and the second data point corresponding to the first shape and the set of second constituent shapes (400a, 400b, 400c), respectively; and segmenting, by the processor, the digital image using one of the first shape and the set of second constituent shapes (400a, 400b, 400c) based on which of the first data point and the second data point has a greater respective signed distance from the hyperplane. accessing, in the memory, a plurality of support vectors calculated from training data representing shapes of conforming biological unit exemplars and shapes of non-conforming biological unit exemplars, the plurality of support vectors defining a hyperplane in a vector space; accessing, in the memory, image data representing the digital image of the biological tissue; identifying, by the processor, a first shape at a scale level and a set of second constituent shapes (400a, 400b, 400c) at an adjacent lower scale level in the digital image using the image data, wherein the first shape at said scale level is constituted by the second set of constituent shapes (400a, 400b, 400c) at said lower scale level and comprises a union of the set of second constituent shapes (400a, 400b, 400c); mapping, by the processor, a first data point and a second data point into the vector space, the first data point and the second data point corresponding to the first shape and the set of second constituent shapes (400a, 400b, 400c), respectively; and segmenting, by the processor, the digital image using one of the first shape and the set of second constituent shapes (400a, 400b, 400c) based on which of the first data point and the second data point has a greater respective signed distance from the hyperplane.
A high-frequency power amplifier with a broadband amplifier, a Doherty extension and a coupling device, wherein the broadband amplifier comprises a power splitter, a main amplifier path and an auxiliary amplifier path, and wherein the Doherty extension comprises at least one first offset line, a second offset line and an impedance inverter, characterised in that the coupling device contains a 90° coupler, which is embodied to couple the main amplifier path and the auxiliary amplifier path on a common line, that the broadband amplifier is connected by means of a switching device to the Doherty extension, that the broadband amplifier is further connected by means of the switching device to the coupling device, and that the switching device switches the broadband amplifier between the Doherty extension and the coupling device.
A wireless headphone, comprising a wireless headphone power wire, a wireless headphone ground wire, a wireless headphone RXD wire, a wireless headphone TXD wire, a wireless headphone connection wire, a wireless headphone transistor, a wireless headphone power supply, a first wireless headphone contact, a second wireless headphone contact, a third wireless headphone contact, a third resistor, and a fourth resistor; the wireless headphone RXD wire is connected to a collector of the wireless headphone transistor; an emitter of the wireless headphone transistor is connected to the wireless headphone TXD wire; a base of the wireless headphone transistor is connected to one terminal of the third resistor; the other terminal of the third resistor is connected to the wireless headphone power supply; one terminal of the fourth resistor is connected to the wireless headphone power supply, and the other terminal of the fourth resistor is connected to the collector of the wireless headphone transistor; the wireless headphone power wire is connected to the first wireless headphone contact; the wireless headphone ground wire is connected to the second wireless headphone contact; one end of the wireless headphone connection wire is connected to the collector of the wireless headphone transistor, and the other end of the wireless headphone connection wire is connected to the third wireless headphone contact.
Infrared sensor device (100; 200; 300), comprising: - a semiconductor substrate; - a multiplicity of row lines and a multiplicity of column lines; - at least one micromechanically formed sensor element, which is connected to the semiconductor substrate by means of a suspension arrangement of the sensor element, wherein the suspension arrangement of the sensor element comprises conductor tracks for the electrical supply of the sensor element, said conductor tracks being electrically connected to at least one of the multiplicity of row lines and/or of the multiplicity of column lines; and - at least one micromechanically formed calibration element for the sensor element, which is connected to the semiconductor substrate by means of a suspension arrangement of the calibration element, wherein the suspension arrangement of the calibration element comprises conductor tracks for the electrical supply of the calibration element, said conductor tracks being electrically connected to at least one of the multiplicity of row lines and/or of the multiplicity of column lines; wherein in each case at least one diode correspondingly associated with the sensor element and the calibration element is formed for the sensor element and for the calibration element, wherein an absorber material is arranged at least on the diodes of the sensor element and of the calibration element; wherein a respective cavity is formed in the semiconductor substrate substantially below the sensor element and substantially below the calibration element, wherein the sensor element and the calibration element are separated from the rest of the semiconductor substrate by means of the cavities; wherein the calibration element is thermally coupled to the semiconductor substrate by thermal bridges directly on the shortest path between a column or respectively row line region (20, 30) and a region with the at least one diode; and wherein the thermal bridges contain a metal structure for increasing the thermal conductivity of the thermal bridges. - a semiconductor substrate; - a multiplicity of row lines and a multiplicity of column lines; - at least one micromechanically formed sensor element, which is connected to the semiconductor substrate by means of a suspension arrangement of the sensor element, wherein the suspension arrangement of the sensor element comprises conductor tracks for the electrical supply of the sensor element, said conductor tracks being electrically connected to at least one of the multiplicity of row lines and/or of the multiplicity of column lines; and - at least one micromechanically formed calibration element for the sensor element, which is connected to the semiconductor substrate by means of a suspension arrangement of the calibration element, wherein the suspension arrangement of the calibration element comprises conductor tracks for the electrical supply of the calibration element, said conductor tracks being electrically connected to at least one of the multiplicity of row lines and/or of the multiplicity of column lines;
A computer readable medium comprising computer executable instructions stored thereon to cause two or more processing units to: interrogate, by a first processing unit of a programmable device, information associated with a second processing unit of the programmable device; and analyze, by the first processing unit, the information associated with the second processing unit to determine if an operating condition associated with the second processing unit indicates a potential abnormality, the potential abnormality comprising malicious code operable to attempt concealment from instructions executed by the second processing unit; interrogate, by the second processing unit, information associated with the first processing unit; and analyze, by the second processing unit, the information associated with the first processing unit to determine if an operating condition associated with the first processing unit indicates a second potential abnormality comprising malicious code operable to attempt concealment from instructions executed by the first processing unit. interrogate, by a first processing unit of a programmable device, information associated with a second processing unit of the programmable device; and analyze, by the first processing unit, the information associated with the second processing unit to determine if an operating condition associated with the second processing unit indicates a potential abnormality, the potential abnormality comprising malicious code operable to attempt concealment from instructions executed by the second processing unit; interrogate, by the second processing unit, information associated with the first processing unit; and analyze, by the second processing unit, the information associated with the first processing unit to determine if an operating condition associated with the first processing unit indicates a second potential abnormality comprising malicious code operable to attempt concealment from instructions executed by the first processing unit.
Method for calibrating a measuring probe in a gear cutting machine by using a workpiece received in a workpiece holder of the gear cutting machine, wherein the measuring probe includes a measuring probe tip which is movably arranged on a measuring probe base, wherein the deflection of the measuring probe tip relative the measuring probe base can be determined via at least one sensor of the measuring probe, and wherein the measuring probe is traversable relative to the workpiece holder via at least two axes of movement of the gear cutting machine, wherein the method comprises the following steps: - traversing measuring probe and/or workpiece into a relative position in which the measuring probe tip touches a tooth flank of the workpiece; - rotating the workpiece via an axis of rotation of the workpiece holder and traversing the measuring probe via the at least two axes of movement of the gear cutting machine such that - the touch point of the measuring probe tip on the tooth flank would remain unchanged in the case of a perfect calibration, and - the deflection or the amount of the deflection of the measuring probe tip would adopt and/or maintain at least one specified value in the case of a perfect calibration; - determining a deviation of the deflection of the measuring probe tip from the at least one specified value at at least one measurement point; - determining at least one correction value of the calibration on the basis of the deviation. - traversing measuring probe and/or workpiece into a relative position in which the measuring probe tip touches a tooth flank of the workpiece; - rotating the workpiece via an axis of rotation of the workpiece holder and traversing the measuring probe via the at least two axes of movement of the gear cutting machine such that - the touch point of the measuring probe tip on the tooth flank would remain unchanged in the case of a perfect calibration, and - the deflection or the amount of the deflection of the measuring probe tip would adopt and/or maintain at least one specified value in the case of a perfect calibration; - the touch point of the measuring probe tip on the tooth flank would remain unchanged in the case of a perfect calibration, and - the deflection or the amount of the deflection of the measuring probe tip would adopt and/or maintain at least one specified value in the case of a perfect calibration; - determining a deviation of the deflection of the measuring probe tip from the at least one specified value at at least one measurement point; - determining at least one correction value of the calibration on the basis of the deviation.
A filament winding device comprising a plurality of helical heads (43, 44) in which fiber bundle guides (91, 92) are moved substantially perpendicularly to a rotational axis (Ra) of a liner and are provided radially, wherein the liner passes through the helical heads (43, 44) while being rotated so as to wind a fiber bundle onto an outer peripheral surface of the liner, characterized in that an interval adjusting means is provided which adjusts a distance between a virtual plane (Pf) perpendicular to the rotational axis (Ra) of the liner and intersecting a guiding opening of the fiber bundle guide provided in one of the helical heads and a virtual plane (Pw) perpendicular to the rotational axis (Ra) of the liner and intersecting a guiding opening of the fiber bundle guide provided in another helical head,
A sweetener composition comprising allulose and a stevia extract, the sweetener composition comprising allulose in an amount of at least 85% by weight and stevia extract in an amount of at least 0.07% by weight relative to the total weight of allulose and stevia extract in the composition on a dry solids basis, wherein the stevia extract comprises Rebaudioside A in an amount of from 60 weight % to 85 weight % relative to the combined total weight of steviol glycosides in the stevia extract on a dry solids basis.
An optical conductor (2; 8; 10; 12) comprising a plurality of spherically curved light-extraction areas arranged on surface of the optical conductor in spaced relationship to one another and each of the plurality of spherically curved light extraction areas having a height (h) and a radius of surface curvature, wherein - h/R ratios of respective height (h) to respective radius of all light-extraction areas are substantially equal, - the height (h) of the plurality of the light-extraction areas increases with increasing distance from a light-injection area of the optical conductor, - the h/R ratios lie within a range of 0.3 ± 10%; - the light-extraction areas are arranged and/or dimensioned for unevenly bright radiation of a first light extracted from the optical conductor in a desired direction over an area; - the light-extraction areas are arranged in transverse rows that are uniformly spaced in a longitudinal direction of the optical conductor, thereby forming a rectangular matrix-shaped surface pattern with subsequent rows of light-extraction areas having increasing distance from the light-injection area, - the light-extraction areas have an equal height (h) within each of the rows, and - the height (h) of the light-extraction areas of the individual rows increases every n ≥ 2 rows. - h/R ratios of respective height (h) to respective radius of all light-extraction areas are substantially equal, - the height (h) of the plurality of the light-extraction areas increases with increasing distance from a light-injection area of the optical conductor, - the h/R ratios lie within a range of 0.3 ± 10%; - the light-extraction areas are arranged and/or dimensioned for unevenly bright radiation of a first light extracted from the optical conductor in a desired direction over an area; - the light-extraction areas are arranged in transverse rows that are uniformly spaced in a longitudinal direction of the optical conductor, thereby forming a rectangular matrix-shaped surface pattern with subsequent rows of light-extraction areas having increasing distance from the light-injection area, - the light-extraction areas have an equal height (h) within each of the rows, and - the height (h) of the light-extraction areas of the individual rows increases every n ≥ 2 rows.