mhurhangee/patent-ind-claim-en huggingface dataset:
A gas-sensing element , comprising: a body comprising a semiconductor that is a metal oxide of a first metal; a gas-sensing surface over the body, comprising a metal oxide semiconductor of the first metal and a dopant comprising a second metal that is a transition metal and is different than the first metal; and an auxiliary component comprising: an internally-disposed second metal disposed in the gas-sensing element between the body and the gas-sensing surface , and a metal oxide semiconductor of the first metal disposed between the internally-disposed second metal and the gas-sensing surface adjacent to the gas-sensing surface . a body comprising a semiconductor that is a metal oxide of a first metal; a gas-sensing surface over the body, comprising a metal oxide semiconductor of the first metal and a dopant comprising a second metal that is a transition metal and is different than the first metal; and an auxiliary component comprising: an internally-disposed second metal disposed in the gas-sensing element between the body and the gas-sensing surface , and a metal oxide semiconductor of the first metal disposed between the internally-disposed second metal and the gas-sensing surface adjacent to the gas-sensing surface . an internally-disposed second metal disposed in the gas-sensing element between the body and the gas-sensing surface , and a metal oxide semiconductor of the first metal disposed between the internally-disposed second metal and the gas-sensing surface adjacent to the gas-sensing surface .
A bumper beam for a vehicle comprising: a first member including, in a cross section perpendicular to a lengthwise direction, a first top panel part that is flat, two first vertical wall parts each connected to a respective one of opposite sides of the first top panel part and two first flange parts each connected to a respective one of the two first vertical wall parts ; and a second member including, in the cross section perpendicular to the lengthwise direction, a second top panel part that includes a protruding part protruding toward a side opposite to the first top panel part , two second vertical wall parts each connected to a respective one of opposite sides of the second top panel part , the two second vertical wall parts being disposed such that the two second vertical wall parts each faces a respective one of the first vertical wall parts inside the first member , and two second flange parts that are disposed such that the second flange parts each connected to a respective one of the two second vertical wall parts and joined to a respective one of the first flange parts , characterized in that gaps (d) between a respective one of the first vertical wall parts and a respective one of the second vertical wall parts are 0 mm or more to 10 mm or less, and and in that a ratio hl/H between a height h1 of the second vertical wall parts and a height H of the first vertical wall parts is 0.1 or more to 0.5 or less. a second member including, in the cross section perpendicular to the lengthwise direction, a second top panel part that includes a protruding part protruding toward a side opposite to the first top panel part , two second vertical wall parts each connected to a respective one of opposite sides of the second top panel part , the two second vertical wall parts being disposed such that the two second vertical wall parts each faces a respective one of the first vertical wall parts inside the first member , and two second flange parts that are disposed such that the second flange parts each connected to a respective one of the two second vertical wall parts and joined to a respective one of the first flange parts , characterized in that gaps (d) between a respective one of the first vertical wall parts and a respective one of the second vertical wall parts are 0 mm or more to 10 mm or less, and and in that a ratio hl/H between a height h1 of the second vertical wall parts and a height H of the first vertical wall parts is 0.1 or more to 0.5 or less.
A method of calibrating inertial sensors of working equipment, the method including: capturing data from one or more inertial sensors and one or more temperature sensors located proximate the one or more inertial sensors while the working equipment is not in operation; and updating a thermal bias error model for the one or more inertial sensors with the data captured from the one or more inertial sensors and the one or more temperature sensors ; and wherein a sensor subsystem having the one or more inertial sensors and one or more temperature sensors is periodically powered up to capture the data while the working equipment is not in operation. capturing data from one or more inertial sensors and one or more temperature sensors located proximate the one or more inertial sensors while the working equipment is not in operation; and updating a thermal bias error model for the one or more inertial sensors with the data captured from the one or more inertial sensors and the one or more temperature sensors ; and wherein a sensor subsystem having the one or more inertial sensors and one or more temperature sensors is periodically powered up to capture the data while the working equipment is not in operation.
A mobile terminal , comprising: a wireless communication unit configured to wirelessly communicate with at least one other terminal; a memory configured to store recorded voice data; a display unit configured to display a progress bar representing a reproduction progress of the recorded voice data; and a controller configured to: select a section of the recorded voice data including a point-in-time at which the progress bar has been selected, in response to a user input applied to the progress bar, convert the voice keywords included in the selected section of the recorded voice data to text keywords, determine at least one of an order in which to display the text keywords and a method of displaying the text keywords, based on a number of times that the voice keywords are included in the section of the recorded voice data, and distinctively display the text keywords on the display unit . a wireless communication unit configured to wirelessly communicate with at least one other terminal; a memory configured to store recorded voice data; a display unit configured to display a progress bar representing a reproduction progress of the recorded voice data; and a controller configured to: select a section of the recorded voice data including a point-in-time at which the progress bar has been selected, in response to a user input applied to the progress bar, convert the voice keywords included in the selected section of the recorded voice data to text keywords, determine at least one of an order in which to display the text keywords and a method of displaying the text keywords, based on a number of times that the voice keywords are included in the section of the recorded voice data, and distinctively display the text keywords on the display unit . select a section of the recorded voice data including a point-in-time at which the progress bar has been selected, in response to a user input applied to the progress bar, convert the voice keywords included in the selected section of the recorded voice data to text keywords, determine at least one of an order in which to display the text keywords and a method of displaying the text keywords, based on a number of times that the voice keywords are included in the section of the recorded voice data, and distinctively display the text keywords on the display unit .
Method for recording an image using a digital microscope which comprises at least a motorized or encoded zoom system , an objective , an image sensor and an image processing unit, comprising the following steps: - ascertaining calibration data D ZRef of the zoom system with a reference objective and storing the calibration data D ZRef in an internal memory of the zoom system , wherein the calibration data D ZRef of the zoom system comprise a zoom table with values of a corrected zoom value; - ascertaining calibration data D ORef of the objective with a reference zoom system and storing the calibration data D ORef in an internal memory of the objective , wherein the calibration data D ORef of the objective comprise magnification correction coefficients; - reading the internal memories of the zoom system and of the objective and applying a digital-optical correction of an image captured by an image sensor with the calibration data D ZRef and D ORef . - ascertaining calibration data D ZRef of the zoom system with a reference objective and storing the calibration data D ZRef in an internal memory of the zoom system , wherein the calibration data D ZRef of the zoom system comprise a zoom table with values of a corrected zoom value; - ascertaining calibration data D ORef of the objective with a reference zoom system and storing the calibration data D ORef in an internal memory of the objective , wherein the calibration data D ORef of the objective comprise magnification correction coefficients; - reading the internal memories of the zoom system and of the objective and applying a digital-optical correction of an image captured by an image sensor with the calibration data D ZRef and D ORef .
A surgical instrument comprising: an outer tubular member having a proximal section , a distal section , and a central lumen ; an inner tubular member rotatably received within the central lumen , a distal end of the inner tubular member forming a cutting member extending distally beyond, and exposed relative to, the distal section ; a bearing assembly coupled to the distal section of the outer tubular member and the inner tubular member so as to allow rotation of the inner tubular member relative to the outer tubular member about a central axis of the distal section , characterized by the bearing assembly further including a plurality of balls positioned within a race of the cutting member , to limit axial movement of the cutting member in a direction parallel to the central axis of the distal section ; wherein the outer tubular member includes an inner portion and an outer portion ; and wherein the plurality of balls are positioned within apertures in the inner portion and are covered by the outer portion . an outer tubular member having a proximal section , a distal section , and a central lumen ; an inner tubular member rotatably received within the central lumen , a distal end of the inner tubular member forming a cutting member extending distally beyond, and exposed relative to, the distal section ; a bearing assembly coupled to the distal section of the outer tubular member and the inner tubular member so as to allow rotation of the inner tubular member relative to the outer tubular member about a central axis of the distal section , characterized by the bearing assembly further including a plurality of balls positioned within a race of the cutting member , to limit axial movement of the cutting member in a direction parallel to the central axis of the distal section ; wherein the outer tubular member includes an inner portion and an outer portion ; and wherein the plurality of balls are positioned within apertures in the inner portion and are covered by the outer portion .
A collapsible bottle comprising: a unitary molded body comprising a plurality of panels defining an interior chamber, wherein the plurality of panels comprise: an outlet end panel ; a base panel located on a side of the body opposite the outlet; two planar side panels connecting the outlet end panel and the base panel ; a planar rear panel connected to each of the outlet end panel , the base panel , and the two planar side panels ; a front panel opposite the planar rear panel , wherein the front panel comprises a flat surface and a plurality of curved faceted surfaces connected to the outlet end panel , the base panel , and the two planar side panels ; and an outlet integrally formed with the outlet end panel so as to provide access to the interior chamber, characterized in that the molded body comprises a first thickness proximate a connection interface of the base panel and the front panel and wherein the outlet end panel defines a second thickness greater than the first thickness. an outlet end panel ; a base panel located on a side of the body opposite the outlet; two planar side panels connecting the outlet end panel and the base panel ; a planar rear panel connected to each of the outlet end panel , the base panel , and the two planar side panels ; a front panel opposite the planar rear panel , wherein the front panel comprises a flat surface and a plurality of curved faceted surfaces connected to the outlet end panel , the base panel , and the two planar side panels ; and an outlet integrally formed with the outlet end panel so as to provide access to the interior chamber, characterized in that the molded body comprises a first thickness proximate a connection interface of the base panel and the front panel and wherein the outlet end panel defines a second thickness greater than the first thickness.
Use of compositions comprising, for every A) 100 parts by mass of nylon-6,6, B) 30 to 160 parts by mass of HR glass fibres made of E glass and having an average diameter in the range of 10 +/- 0.5 μm and an average length in the range from 3 to 4.5 mm, where the length and diameter of the individual fibres are determined semi-automatically using scanning electron micrographs (SEM) by means of a graphics tablet and computer-assisted data collection, and C) 0.03 to 0.2 part by mass of at least one metal compound of the metals Cu, Fe, Ce or Mn, for increasing the operational stability of vibration components, with the proviso that not more than 10 parts by mass of impact modifier, and/or not more than 10 parts by mass of flow improver, and/or not more than 10 parts by mass of flame retardancy additive, and/or not more than 0.5 part by mass of hydrolysed fatty acid as demoulding agent are present, and that HR glass fibres to be used as component B) are injection-moulded with nylon-6,6 to give flat specimens according to DIN EN ISO 180 1-U of nominal size 80 mm • 10 mm • 4 mm and, after storage in an autoclave at 130°C/about 2 bar for 1000 h, in a 1:1 mixture of water and ethylene glycol, have an Izod impact resistance to be determined according to ISO180-1U at 23 +/- 2°C of at least 12 kJ/m 2 . A) 100 parts by mass of nylon-6,6, B) 30 to 160 parts by mass of HR glass fibres made of E glass and having an average diameter in the range of 10 +/- 0.5 μm and an average length in the range from 3 to 4.5 mm, where the length and diameter of the individual fibres are determined semi-automatically using scanning electron micrographs (SEM) by means of a graphics tablet and computer-assisted data collection, and C) 0.03 to 0.2 part by mass of at least one metal compound of the metals Cu, Fe, Ce or Mn, for increasing the operational stability of vibration components, with the proviso that not more than 10 parts by mass of impact modifier, and/or not more than 10 parts by mass of flow improver, and/or not more than 10 parts by mass of flame retardancy additive, and/or not more than 0.5 part by mass of hydrolysed fatty acid as demoulding agent are present, and that HR glass fibres to be used as component B) are injection-moulded with nylon-6,6 to give flat specimens according to DIN EN ISO 180 1-U of nominal size 80 mm • 10 mm • 4 mm and, after storage in an autoclave at 130°C/about 2 bar for 1000 h, in a 1:1 mixture of water and ethylene glycol, have an Izod impact resistance to be determined according to ISO180-1U at 23 +/- 2°C of at least 12 kJ/m 2 .
Lid for a hollow body which is open at one end on the top, in which hollow body a candle is arranged, the lid being a hollow body which is open on the bottom and it being possible to place or screw said lid onto the hollow body which is open on the top, the casing of the lid , in the mounted state, projecting upwards over the casing of the hollow body which is open on the top, the lid comprising an upper lid surface and a casing , which casing extends downwards from the edge of the lid surface , the casing of the lid being provided with openings, characterized in that at least one opening is formed by the casing of the lid comprising a slot between two points which lie on a horizontal plane and the material of the casing below the slot being shaped towards the inside of the hollow body of the lid in the form of an indentation , the lower edge of the slot being the upper edge of the indentation such that a substantially horizontally extending opening extends at the upper end of the indentation between the upper edge formed by the slot and the lower edge formed by the slot.
A method of controlling a wind turbine , the wind turbine comprising a tower supporting a nacelle and a rotor with a number of pitch-adjustable rotor blades, the wind turbine further comprising a control system for changing the pitch of the rotor blades and/or the generator torque, and a plurality of multi-axial accelerometers mounted at different positions in the nacelle and/or in a top portion of the tower, each accelerometer being mounted in a defined orientation, the method comprising: - obtaining the position and orientation of each accelerometer as mounted; - measuring accelerations in at least two different directions by each accelerometer during operation of the wind turbine; - obtaining a number of pre-determined mode shapes for the movement of the wind turbine based at least on dimensions of the tower and a weight of the nacelle and the rotor as supported by the tower; - determining an absolute position of at least one of the accelerometers during operation of the wind turbine based on the measured accelerations, the mount position and orientation of each accelerometer and the pre-determined mode shapes, the absolute position being determined relative to a fixed coordinate system; - determining a control parameter of the wind turbine as a function of the determined absolute position; and - controlling the wind turbine according to the control parameter; characterized in that the number of pre-determined mode shapes comprises at least the two first natural mode shapes in a plane corresponding to fore-aft movements of the wind turbine or in a plane corresponding to side-side movements of the wind turbine. - obtaining the position and orientation of each accelerometer as mounted; - measuring accelerations in at least two different directions by each accelerometer during operation of the wind turbine; - obtaining a number of pre-determined mode shapes for the movement of the wind turbine based at least on dimensions of the tower and a weight of the nacelle and the rotor as supported by the tower; - determining an absolute position of at least one of the accelerometers during operation of the wind turbine based on the measured accelerations, the mount position and orientation of each accelerometer and the pre-determined mode shapes, the absolute position being determined relative to a fixed coordinate system; - determining a control parameter of the wind turbine as a function of the determined absolute position; and - controlling the wind turbine according to the control parameter;
A method for producing an optical element , in which a) information elements are printed on a rear side of a transparent or translucent substrate , characterized in that b) a grid (G) is printed on a front side of the substrate , the grid (G) being matched to the information elements and comprising first and second portions , and c) a lens material is applied to the grid (G) at least in a partial region , which lens material is repelled from the first portions of the grid (G), so that lenses are formed from the repelled lens material in the second portions , wherein - either the first portions of the grid (G) are printed from a colored material having a hydrophobic or hydrophilic property, the lens material comprises a property complementary thereto, and the grid (G) printed in step b) delimits with its first portions the second portions , - or the front side of the substrate comprises a hydrophobic or hydrophilic property and the grid (G) is printed from a colored material having a complementary hydrophilic or hydrophobic property, the lens material being selected so as to attract the colored material. a) information elements are printed on a rear side of a transparent or translucent substrate , characterized in that b) a grid (G) is printed on a front side of the substrate , the grid (G) being matched to the information elements and comprising first and second portions , and c) a lens material is applied to the grid (G) at least in a partial region , which lens material is repelled from the first portions of the grid (G), so that lenses are formed from the repelled lens material in the second portions , wherein - either the first portions of the grid (G) are printed from a colored material having a hydrophobic or hydrophilic property, the lens material comprises a property complementary thereto, and the grid (G) printed in step b) delimits with its first portions the second portions , - or the front side of the substrate comprises a hydrophobic or hydrophilic property and the grid (G) is printed from a colored material having a complementary hydrophilic or hydrophobic property, the lens material being selected so as to attract the colored material. - either the first portions of the grid (G) are printed from a colored material having a hydrophobic or hydrophilic property, the lens material comprises a property complementary thereto, and the grid (G) printed in step b) delimits with its first portions the second portions , - or the front side of the substrate comprises a hydrophobic or hydrophilic property and the grid (G) is printed from a colored material having a complementary hydrophilic or hydrophobic property, the lens material being selected so as to attract the colored material.
Method for determining the fill level of a medium by means of continuous wave radar measurement, wherein a code sequence is generated by a code sequence generator and a coded transmit signal coded with the code sequence is emitted by a transmitter , wherein the transmit signal is at least partially reflected at the medium and is received by a receiver as a reflection signal , wherein the reflection signal and a derived signal being derived from the transmit signal are subjected to a correlation analysis with a correlator and a correlation outcome results, wherein a control and evaluation unit determines the time offset of the correlated signals with the correlation outcome and uses it to determine the fill level of the medium, wherein the correlator comprises an analog mixer and the reflection signal and the derived signal being derived from the transmit signal are mixed with the analog mixer into a mixer output signal, wherein the correlator has an analog/digital converter , with which the mixer output signal is sampled and quantized to a digital mixer output signal, and wherein the correlator has a digital integrator with which a sequence of digital mixer output signals is digitally integrated into the correlation outcome, wherein the correlator comprises an analog low-pass filter and the mixer output signal is filtered by the low-pass filter and the low-pass filtered mixer output signal is sampled by the analog/digital converter and quantized to a digital mixer output signal, wherein a binary code sequence of the length N code is generated by the code sequence generator and the transmitter emits each bit of the binary code sequence with the bit duration T chip and the transmitter thereby emits the binary code sequence with the binary code sequence duration T code = N code ∗ T chip , wherein the sampling of the mixer output signal is sampled at a sampling frequency f sample of the analog/digital converter between the bit frequency 1/T chip and the code sequence frequency f code = 1/T code , in particular wherein the sampling frequency f sample of the analog/digital converter corresponds to at least twice the code sequence frequency f code .