mhurhangee/patent-ind-claim-en huggingface dataset:
An ultrasound source azimuth determining apparatus comprising: a camera configured to pick up an image of a measured object ; an array sensor configured to measure a sound pressure of ultrasound originating from a direction of the measured object ; computing means for generating a sound pressure map on the basis of sound pressure information of ultrasound acquired by the array sensor , and superimposing the sound pressure map and a picked-up image acquired by the camera to generate a composite image; and display means for displaying the composite image, wherein the array sensor includes a total of greater than or equal to 9 and less than or equal to 25 surface mount sensors , and at least some of the surface mount sensors are arranged on an X-axis and a Y-axis in the same plane, wherein spacing between surface mount sensors is greater than or equal to a half-wavelength of ultrasound to be measured, wherein the spacing between surface mount sensors is set based on a relationship between a grating lobe boundary azimuth and a non-dimensional sensor spacing, so as to suppress the occurrence of grating lobes within the search range of the array sensor , characterized in that a search range of the array sensor is a range narrower than ±90° and wider than ±8° in each of horizontal and vertical directions and that the surface mount sensors are arranged such that the non-dimensional sensor spacing is 0.90 or less, the non-dimensional sensor spacing being obtained by dividing the spacing between surface mount sensors by a wavelength of ultrasound to be measured. a camera configured to pick up an image of a measured object ; an array sensor configured to measure a sound pressure of ultrasound originating from a direction of the measured object ; computing means for generating a sound pressure map on the basis of sound pressure information of ultrasound acquired by the array sensor , and superimposing the sound pressure map and a picked-up image acquired by the camera to generate a composite image; and display means for displaying the composite image, wherein the array sensor includes a total of greater than or equal to 9 and less than or equal to 25 surface mount sensors , and at least some of the surface mount sensors are arranged on an X-axis and a Y-axis in the same plane, wherein spacing between surface mount sensors is greater than or equal to a half-wavelength of ultrasound to be measured, wherein the spacing between surface mount sensors is set based on a relationship between a grating lobe boundary azimuth and a non-dimensional sensor spacing, so as to suppress the occurrence of grating lobes within the search range of the array sensor , characterized in that a search range of the array sensor is a range narrower than ±90° and wider than ±8° in each of horizontal and vertical directions and that the surface mount sensors are arranged such that the non-dimensional sensor spacing is 0.90 or less, the non-dimensional sensor spacing being obtained by dividing the spacing between surface mount sensors by a wavelength of ultrasound to be measured.
A shovel comprising: a lower traveling body ; an upper turning body turnably mounted on the lower traveling body ; an attachment including a boom and an arm , the boom being attached to the upper turning body , and the arm being attached to a tip of the boom ; a boom cylinder configured to drive the boom ; an arm cylinder configured to drive the arm ; a hydraulic pump configured to supply hydraulic oil to the boom cylinder and the arm cylinder ; an input device configured to receive an input from an operator; and a control device configured to control the hydraulic pump , characterized in that when a lifting mode that is a work mode corresponding to hoisting work involving use of the attachment is selected in response to the input received by the input device , the control device sets a standby flow rate of the hydraulic pump to be greater than when a normal mode is selected, the normal mode being a work mode for performing work other than the hoisting work, the work other than the hoisting work including excavation work. a lower traveling body ; an upper turning body turnably mounted on the lower traveling body ; an attachment including a boom and an arm , the boom being attached to the upper turning body , and the arm being attached to a tip of the boom ; a boom cylinder configured to drive the boom ; an arm cylinder configured to drive the arm ; a hydraulic pump configured to supply hydraulic oil to the boom cylinder and the arm cylinder ; an input device configured to receive an input from an operator; and a control device configured to control the hydraulic pump , characterized in that when a lifting mode that is a work mode corresponding to hoisting work involving use of the attachment is selected in response to the input received by the input device , the control device sets a standby flow rate of the hydraulic pump to be greater than when a normal mode is selected, the normal mode being a work mode for performing work other than the hoisting work, the work other than the hoisting work including excavation work.
A computer-implemented or circuit-implemented process for decomposition of compound muscle action potentials (CMAP-s) into contributions of individual motor units, said process comprising the following steps: f) receiving multichannel electromyograms, i.e. EMGs captured during voluntary muscle contractions, as input signals, g) identifying firing moments of motor units from EMG input signals captured during voluntary muscle contractions, h) calculating filters of individual motor units or a common filter of several motor units, i) receiving multichannel EMGs captured during stimulated muscle contractions, as input signals, and j) applying calculated filters of individual motor units or a common filter of several motor units to input EMG signals captured during stimulated muscle contractions to decompose CMAPs into contributions of individual motor units. f) receiving multichannel electromyograms, i.e. EMGs captured during voluntary muscle contractions, as input signals, g) identifying firing moments of motor units from EMG input signals captured during voluntary muscle contractions, h) calculating filters of individual motor units or a common filter of several motor units, i) receiving multichannel EMGs captured during stimulated muscle contractions, as input signals, and j) applying calculated filters of individual motor units or a common filter of several motor units to input EMG signals captured during stimulated muscle contractions to decompose CMAPs into contributions of individual motor units.
A laboratory centrifuge , which has a closure for closing an opening of the laboratory centrifuge , wherein the laboratory centrifuge has a state detection device , which is designed • to detect a closed and/or locked, ready-for-operation state of the closure , and/or • to detect a closing and/or a locking of the closure and thus the emergence of the ready-for-operation state, and, if the ready-for-operation state and/or the emergence of the ready-for-operation state is detected, to enable operation of the laboratory centrifuge , wherein the state detection device is designed to detect the ready-for-operation state and/or the emergence thereof at a plurality of locations of the laboratory centrifuge , characterized in that the state detection device is designed to then only enable operation of the laboratory centrifuge if said device detects the start of the ready-for-operation state of the closure and/or the emergence of the ready-for-operation state at the plurality of locations within a time interval of predefined length. • to detect a closed and/or locked, ready-for-operation state of the closure , and/or • to detect a closing and/or a locking of the closure and thus the emergence of the ready-for-operation state,
A portable auxiliary hazard detector that is adapted to be temporarily introduced in a vicinity of a host detection system and link with a controller of the host detection system to provide additional detection capability, the portable auxiliary hazard detector having at least one light source , each said light source, when operated, emitting a light beam, and at least one photosensor operable to emit sensor signals responsive to interaction of the light beam with an analyte, characterised in that the portable auxiliary hazard detector further comprises a surface plasmon sensor including a prism , the surface plasmon sensor operable to emit second sensor signals responsive to interaction of the light beam with the surface plasmon sensor , and a beam splitter operable to split the light beam into first and second secondary light beams, the first secondary light beam being directed at the prism and the second secondary light beam being directed external to the at least one portable auxiliary hazard detector .
Method for producing a connecting element , in particular a cartridge-fired pin, for connecting at least two components, in particular sheet metal component, in which method a pointed region and a shank region of the connecting element are produced with different properties and the connecting element is produced in one piece, characterised in that the entire connecting element is provided with an adhesive coating , whereupon only the pointed region is freed of the adhesive coating in a first immersion bath and the pointed region is then provided with an antifriction coating in a second immersion bath.
A downhole motor for directional drilling, comprising: a driveshaft assembly including a driveshaft housing and a driveshaft rotatably disposed within the driveshaft housing ; a bearing assembly including a bearing housing and a bearing mandrel rotatably disposed within the bearing housing , wherein the bearing mandrel is configured to couple with a drill bit; characterized by a bend adjustment assembly configured to actuate within a borehole between a first position providing a first angle between a longitudinal axis of the driveshaft housing of the downhole motor and a longitudinal axis of a bearing mandrel of the downhole motor , and a second position providing a second deflection angle between the longitudinal axis of the driveshaft housing and the longitudinal axis of the bearing mandrel , the second deflection angle being different from the first deflection angle; one or more sensors coupled to the driveshaft assembly; and an electronics package coupled to the driveshaft assembly such that the electronics package is configured to rotate with the driveshaft relative to the driveshaft housing , wherein the electronics package is configured to receive data from the one or more sensors of the downhole motor. a driveshaft assembly including a driveshaft housing and a driveshaft rotatably disposed within the driveshaft housing ; a bearing assembly including a bearing housing and a bearing mandrel rotatably disposed within the bearing housing , wherein the bearing mandrel is configured to couple with a drill bit; characterized by a bend adjustment assembly configured to actuate within a borehole between a first position providing a first angle between a longitudinal axis of the driveshaft housing of the downhole motor and a longitudinal axis of a bearing mandrel of the downhole motor , and a second position providing a second deflection angle between the longitudinal axis of the driveshaft housing and the longitudinal axis of the bearing mandrel , the second deflection angle being different from the first deflection angle; one or more sensors coupled to the driveshaft assembly; and an electronics package coupled to the driveshaft assembly such that the electronics package is configured to rotate with the driveshaft relative to the driveshaft housing , wherein the electronics package is configured to receive data from the one or more sensors of the downhole motor.
An electric motor , comprising: - a frame defining an internal volume in which are housed a rotor and a stator , - at least one primary cooling circuit crossing the stator , comprising a primary inlet and a primary outlet in fluidic communication with the outside of the frame , a gas fluid from the outside of the frame penetrating through said primary inlet being intended to circulate in said primary cooling circuit and to leave said circuit through said primary outlet, - at least one cooling device outside the frame comprising a secondary air inlet and a secondary air outlet , said secondary inlet and said secondary outlet being in fluidic communication with the internal volume of the frame , a conduit , connecting said secondary inlet and said secondary outlet, extending at least partly outside the frame , - at least one secondary cooling circuit , separate from the primary circuit , crossing the rotor and in fluidic communication with the secondary inlet and the secondary outlet of the cooling device , a gas fluid internal to the secondary cooling circuit being intended to circulate in said secondary cooling circuit and in said outer cooling device, the secondary cooling circuit being crossed by a channel of the primary cooling circuit supplying the stator with the gas fluid from the outside of the frame , the channel crossing transversely the secondary cooling circuit so as to separate a secondary gas flow flowing in the secondary cooling channel into two gas flows flowing around the channel ; characterized in that the channel comprises a section of prismatic shape with an apex turned upstream the secondary gas fluid and a base turned downstream - a frame defining an internal volume in which are housed a rotor and a stator , - at least one primary cooling circuit crossing the stator , comprising a primary inlet and a primary outlet in fluidic communication with the outside of the frame , a gas fluid from the outside of the frame penetrating through said primary inlet being intended to circulate in said primary cooling circuit and to leave said circuit through said primary outlet, - at least one cooling device outside the frame comprising a secondary air inlet and a secondary air outlet , said secondary inlet and said secondary outlet being in fluidic communication with the internal volume of the frame , a conduit , connecting said secondary inlet and said secondary outlet, extending at least partly outside the frame , - at least one secondary cooling circuit , separate from the primary circuit , crossing the rotor and in fluidic communication with the secondary inlet and the secondary outlet of the cooling device , a gas fluid internal to the secondary cooling circuit being intended to circulate in said secondary cooling circuit and in said outer cooling device,
Shading device with an emergency opening function, wherein the device has an electric drive motor, a winding shaft , a hanging which can be wound onto the winding shaft or a lifting member which can be wound with the winding shaft and a mechanical emergency drive , wherein the drive motor is coupled to the winding shaft via a freewheel , which is blocked in the raising direction of the hanging, characterised in that the emergency drive is connected to the winding shaft via a coupling , wherein the coupling can be switched into a closed position by the actuation of the emergency drive in a load-controlled or movement-controlled manner and is in an open position when the emergency drive is unloaded.
A rolling part made of steel, the rolling part comprising: a quench-hardened layer disposed at a surface of the rolling part, the quench-hardened layer containing nitrogen, wherein a nitrogen concentration in the quench-hardened layer is 0.05 to 0.6 percent by weight, both inclusive, the quench-hardened layer having a hardness of 58 to 64 HRC, both inclusive, as measured by a method defined by JIS, Z2245: 2016, a hydrogen diffusion coefficient in the quench-hardened layer being less than 2.6 × 10 -11 m 2 /s, as measured by an electrochemical hydrogen permeation method as explained in the description, an austenite phase volume ratio in the quench-hardened layer being 10 to 40 percent, both inclusive, wherein the austenite phase volume ratio in the quench-hardened layer is determined by measuring a ratio in diffraction peak intensity between an austenite phase and a martensite phase in the quench-hardened layer under X-ray diffraction, wherein the steel is either a high carbon chrome bearing steel or a high-speed steel, characterized in that the quench-hardened layer containing oxide inclusions having a grain size of 3 μm or more, as determined according to the description, and manganese sulfide, the number of oxide inclusions at least partially covered with the manganese sulfide being more than 40 percent of the total number of oxide inclusions, as determined according to the description, an oxide film is disposed at the surface of the rolling part, the oxide film having a thickness of 0.5 to 2 μm, both inclusive. the quench-hardened layer containing nitrogen, wherein a nitrogen concentration in the quench-hardened layer is 0.05 to 0.6 percent by weight, both inclusive, the quench-hardened layer having a hardness of 58 to 64 HRC, both inclusive, as measured by a method defined by JIS, Z2245: 2016, a hydrogen diffusion coefficient in the quench-hardened layer being less than 2.6 × 10 -11 m 2 /s, as measured by an electrochemical hydrogen permeation method as explained in the description, an austenite phase volume ratio in the quench-hardened layer being 10 to 40 percent, both inclusive, wherein the austenite phase volume ratio in the quench-hardened layer is determined by measuring a ratio in diffraction peak intensity between an austenite phase and a martensite phase in the quench-hardened layer under X-ray diffraction, wherein the steel is either a high carbon chrome bearing steel or a high-speed steel, characterized in that the quench-hardened layer containing oxide inclusions having a grain size of 3 μm or more, as determined according to the description, and manganese sulfide, the number of oxide inclusions at least partially covered with the manganese sulfide being more than 40 percent of the total number of oxide inclusions, as determined according to the description, an oxide film is disposed at the surface of the rolling part, the oxide film having a thickness of 0.5 to 2 μm, both inclusive.
Pipetting device for an apparatus for processing a sample or reagent, comprising a coupling mechanism, wherein the coupling mechanism comprises at least a first coupling unit adapted to be coupled to a first pipetting tip and a second coupling unit (106 adapted to be coupled to a second pipetting tip , and a selection element for selectively allowing a coupling of the first coupling unit to or releasing the first coupling unit from the first pipetting tip and for selectively allowing a coupling of the second coupling unit to or releasing the second coupling unit from the second pipetting tip , wherein the selection element is mechanically coupled to the first coupling unit and the second coupling unit , characterised in that said selection element is a single constructional member capable of selectively being in the following operation states: - a first operation state that allows the first coupling unit to release from or not to engage with the first pipetting tip and the second coupling unit to release from or not to engage with the second pipetting tip , - a second operation state that allows the first coupling unit to couple to or engage with the first pipetting tip and the second coupling unit to release from or not to engage with the second pipetting tip , - a third operation state that allows the first coupling unit to couple to or to engage with the first pipetting tip and the second coupling unit to couple to or to engage with the second pipetting tip , - a fourth operation state that allows the second coupling unit to couple to or to engage with the second pipetting tip and the first coupling unit to release from or not to engage with the first pipetting tip . - a first operation state that allows the first coupling unit to release from or not to engage with the first pipetting tip and the second coupling unit to release from or not to engage with the second pipetting tip , - a second operation state that allows the first coupling unit to couple to or engage with the first pipetting tip and the second coupling unit to release from or not to engage with the second pipetting tip , - a third operation state that allows the first coupling unit to couple to or to engage with the first pipetting tip and the second coupling unit to couple to or to engage with the second pipetting tip , - a fourth operation state that allows the second coupling unit to couple to or to engage with the second pipetting tip and the first coupling unit to release from or not to engage with the first pipetting tip .
Composition comprising the constituents (A) water, (B) electroconductive nanoobjects, said electroconductive nanoobjects (B) having two external dimensions in the range of from 1 nm to 100 nm and their third external dimension in the range of from 1 μm to 100 μm, wherein the weight fraction of said electroconductive nanoobjects (B) is in the range of from 0.01 wt.-% to 1 wt.-% based on the total weight of the composition, (C) dispersed in the water in the form of a latex, particles of a polymer having a number average molecular weight of 25000 g/mol or higher, wherein said dispersed particles (C) have a mean diameter in the range of from 10 nm to 1000 nm, wherein the total weight fraction of said dispersed particles (C) is in the range of from 0.02 wt.-% to 5 wt.-%, based on the total weight of the composition. (A) water, (B) electroconductive nanoobjects, said electroconductive nanoobjects (B) having two external dimensions in the range of from 1 nm to 100 nm and their third external dimension in the range of from 1 μm to 100 μm, wherein the weight fraction of said electroconductive nanoobjects (B) is in the range of from 0.01 wt.-% to 1 wt.-% based on the total weight of the composition, (C) dispersed in the water in the form of a latex, particles of a polymer having a number average molecular weight of 25000 g/mol or higher, wherein said dispersed particles (C) have a mean diameter in the range of from 10 nm to 1000 nm, wherein the total weight fraction of said dispersed particles (C) is in the range of from 0.02 wt.-% to 5 wt.-%, based on the total weight of the composition.
A method performed by a first base station in a wireless communication system supporting a dual connectivity, the method comprising: transmitting , to a second base station , a first message for requesting a certain action related to a secondary cell group, SCG , wherein the first message includes configuration information for assisting the second base station to configure the SCG for the dual connectivity, the certain action includes at least one of an establishment or a modification of the SCG , and the configuration information includes multimedia broadcast multicast service, MBMS, interest information; receiving , from the second base station , a second message as a response to the first message, the second message being associated with the certain action; and transmitting , to a terminal , a third message based on the second message. transmitting , to a second base station , a first message for requesting a certain action related to a secondary cell group, SCG , wherein the first message includes configuration information for assisting the second base station to configure the SCG for the dual connectivity, the certain action includes at least one of an establishment or a modification of the SCG , and the configuration information includes multimedia broadcast multicast service, MBMS, interest information; receiving , from the second base station , a second message as a response to the first message, the second message being associated with the certain action; and transmitting , to a terminal , a third message based on the second message.