mhurhangee/patent-ind-claim-en huggingface dataset:
A shutter mechanism, comprising: a rotation power source that generates rotation power, a crank that converts the rotation power generated by the rotation power source into a back-and-forth movement, and a shutter connected to the crank, the shutter moving back and forth according to the crank between a first position at which an optical path is blocked and a second position at which the optical path is not blocked; wherein the rotation power source is a stepping motor; and wherein the shutter mechanism comprises a controller that supplies pulse power to the stepping motor, the controller reducing a pulse interval of the pulse power as the shutter is away from the first position or the second position, the controller supplying pulse power to the stepping motor so that a driving profile representing the pulse interval with respect to the rotational position is a Sin curve to prevent loss of synchronization due to vibration reduction and abrupt speed change, and supplying an inverted pulse to the stepping motor, the inverted pulse being a pulse which corresponds to a rotation torque of the motor inverse to a rotation torque of the motor corresponding to the pulse power, when the stepping motor stops rotating. a rotation power source that generates rotation power, a crank that converts the rotation power generated by the rotation power source into a back-and-forth movement, and a shutter connected to the crank, the shutter moving back and forth according to the crank between a first position at which an optical path is blocked and a second position at which the optical path is not blocked; wherein the rotation power source is a stepping motor; and wherein the shutter mechanism comprises a controller that supplies pulse power to the stepping motor, the controller reducing a pulse interval of the pulse power as the shutter is away from the first position or the second position, the controller supplying pulse power to the stepping motor so that a driving profile representing the pulse interval with respect to the rotational position is a Sin curve to prevent loss of synchronization due to vibration reduction and abrupt speed change, and supplying an inverted pulse to the stepping motor, the inverted pulse being a pulse which corresponds to a rotation torque of the motor inverse to a rotation torque of the motor corresponding to the pulse power, when the stepping motor stops rotating.
A parting off blade for use in combination with a parting off machine, a lathe or the like, the parting off blade comprising a free front end for cutting a sample , a first cutting insert being mounted at said free front end of said blade and a cutting section being provided behind said first cutting insert , at least one second cutting insert being provided behind said cutting section , said second cutting insert having a greater thickness than said first cutting insert , characterized in that said two cutting inserts are coaxially arranged along a longitudinal axis, to provide a symmetric thickness increase in said parting off blade, from said first cutting insert to said second cutting insert . a first cutting insert being mounted at said free front end of said blade and a cutting section being provided behind said first cutting insert , at least one second cutting insert being provided behind said cutting section , said second cutting insert having a greater thickness than said first cutting insert , characterized in that said two cutting inserts are coaxially arranged along a longitudinal axis, to provide a symmetric thickness increase in said parting off blade, from said first cutting insert to said second cutting insert .
Vacuum cleaner system comprising a vacuum cleaner comprising: a first housing comprising an air inlet , an air outlet , a motor fan unit for creating an airflow (F) from the air inlet to the air outlet , a battery for powering the motor fan unit , and a first unit for charging the battery ; and a charger comprising a second housing comprising a second unit for charging the battery ; wherein the first unit is connected to the battery and the second unit is adapted to be connected to an external power source , and the first unit and the second unit are adapted for wireless power transfer from the second unit to the first unit wherein the first unit comprises a first control unit for controlling the status of the battery characte rised in that the second unit comprising a second control unit for controlling the charging and/or status of the battery .
A computer-implemented semiconductor inspection method comprising: a step of acquiring a first pattern image showing a pattern of a semiconductor device (S); a step of acquiring a second pattern image showing a pattern of the semiconductor device (S) and having a different resolution from a resolution of the first pattern image showing a pattern of the semiconductor device; a step of reconstructing the second pattern image into a reconstructed image having a different resolution from a resolution of the second pattern image by the reconstruction process using a learning model acquired by machine learning using training data of a plurality of pairs of pattern images of the same semiconductor device having resolutions different from each other; and a step of performing alignment based on a region calculated to have a high degree of certainty by the reconstruction process in the reconstructed image and the first pattern image, wherein the degree of certainty is based on an output value of a node of an output layer in the learning model of the reconstruction process and indicates a reliability of the reconstruction process related to pixel values of the region, and wherein the reconstructed image is weighted according to the degree of certainty, and then the reconstructed image and the first pattern image are aligned. a step of acquiring a second pattern image showing a pattern of the semiconductor device (S) and having a different resolution from a resolution of the first pattern image showing a pattern of the semiconductor device; a step of reconstructing the second pattern image into a reconstructed image having a different resolution from a resolution of the second pattern image by the reconstruction process using a learning model acquired by machine learning using training data of a plurality of pairs of pattern images of the same semiconductor device having resolutions different from each other; and a step of performing alignment based on a region calculated to have a high degree of certainty by the reconstruction process in the reconstructed image and the first pattern image, wherein the degree of certainty is based on an output value of a node of an output layer in the learning model of the reconstruction process and indicates a reliability of the reconstruction process related to pixel values of the region, and wherein the reconstructed image is weighted according to the degree of certainty, and then the reconstructed image and the first pattern image are aligned.
Device for continuous desulphurisation of liquid iron comprising a desulphurisation reactor (A) or a plurality of consecutive desulphurisation reactors (A, B, ..), wherein the desulphurisation reactor or reactors each comprise an entry section for receiving liquid iron from liquid iron production means or from the desulphurisation reactor immediately preceding the subsequent desulphurisation reactor, and a reaction section for removing the sulphur from the liquid iron, wherein the entry section and the reaction section in the desulphurisation reactors act as communicating vessels, wherein a passage is provided between the entry section and the reaction section to allow, in use, the liquid iron to flow from the entry section to the reaction section, wherein supply means for the liquid iron into the first or only desulphurisation reactor (A) are provided in the entry section, and wherein means for introducing reagents into the liquid iron in the reaction section or in the entry section are provided and wherein the means for introducing reagents into the liquid iron comprise a submerged lance, and wherein an outlet is provided in the reaction section , preferably at or near the top of the reaction section , to allow desulphurised liquid iron to exit the reaction section , and wherein (i) a return passage is provided between the reaction section of desulphurisation reactor (A) and the entry section of said desulphurisation reactor (A), and/or (ii) wherein a return passage is provided between the first and the second desulphurisation reactor (A, B, ..), wherein the return passage connects the entry section of the second reactor (B) to the reaction section of the first desulphurisation reactor (A), to increase, in use, the residence time of the liquid iron in the device. (i) a return passage is provided between the reaction section of desulphurisation reactor (A) and the entry section of said desulphurisation reactor (A), and/or (ii) wherein a return passage is provided between the first and the second desulphurisation reactor (A, B, ..), wherein the return passage connects the entry section of the second reactor (B) to the reaction section of the first desulphurisation reactor (A),
Liquid container with : a first storage level configured to store the liquid, a second pressurization level configured to receive a gas to keep the first level pressurized, characterized in that the first and second levels can be stored flat with a thickness of less than 5 cm when empty of liquid and gas, the container further comprising an envelope configured to maintain said first and second levels in a maximum volume, said envelope being configured to be stored flat with a thickness of less than 5 cm, characterized in that the first level comprises a first pouch provided with a first non-return fitting part , characterized in that the second level comprises a second pouch provided with a second non-return fitting part . a first storage level configured to store the liquid, a second pressurization level configured to receive a gas to keep the first level pressurized, characterized in that the first and second levels can be stored flat with a thickness of less than 5 cm when empty of liquid and gas, the container further comprising an envelope configured to maintain said first and second levels in a maximum volume, said envelope being configured to be stored flat with a thickness of less than 5 cm, characterized in that the first level comprises a first pouch provided with a first non-return fitting part , characterized in that the second level comprises a second pouch provided with a second non-return fitting part .
Method for quantification of the amount of lactide, which is the cyclic dimer of lactic acid, in a lactide-based polymeric matrix by means of Infra Red Spectroscopy measurements, wherein the polymeric matrix comprises polylactic acid (PLA) or PLA-containing copolymers, and, wherein the quantification is based on measurements performed on absorptions in the near Infra Red region of the electromagnetic spectrum, the near Infra Red region ranging from 12000-4000cm -1 so as to capture molecular overtones and combination vibrations of said lactide. wherein the polymeric matrix comprises polylactic acid (PLA) or PLA-containing copolymers, and, wherein the quantification is based on measurements performed on absorptions in the near Infra Red region of the electromagnetic spectrum, the near Infra Red region ranging from 12000-4000cm -1 so as to capture molecular overtones and combination vibrations of said lactide.
A semiconductor device comprising: a plurality of cores (10; 20); a sensor (TSH1; TSH2) for detecting a temperature; and a control circuit for obtaining each power consumption value of the respective cores (10; 20) in accordance with the temperature detected by the sensor (TSH1; TSH2), and for selecting the core as a control object in accordance with the obtained power consumption; wherein the control circuit obtains each power consumption value of the respective cores (10; 20) in response to a result of comparison between the temperature detected by the sensor and a predetermined temperature threshold; wherein the control circuit selects the core as the control object by using a result of comparison between each value of the power consumption of the cores (10; 20) and predetermined reference values of the power consumption for the cores; wherein the predetermined reference values of the power consumption for the respective cores (10; 20) are the respective power each core consumes such that the temperature detected by the sensor reaches the predetermined temperature threshold, wherein the temperature threshold is the temperature, at which the heat control starts. a plurality of cores (10; 20); a sensor (TSH1; TSH2) for detecting a temperature; and a control circuit for obtaining each power consumption value of the respective cores (10; 20) in accordance with the temperature detected by the sensor (TSH1; TSH2), and for selecting the core as a control object in accordance with the obtained power consumption; wherein the control circuit obtains each power consumption value of the respective cores (10; 20) in response to a result of comparison between the temperature detected by the sensor and a predetermined temperature threshold; wherein the control circuit selects the core as the control object by using a result of comparison between each value of the power consumption of the cores (10; 20) and predetermined reference values of the power consumption for the cores; wherein the predetermined reference values of the power consumption for the respective cores (10; 20) are the respective power each core consumes such that the temperature detected by the sensor reaches the predetermined temperature threshold, wherein the temperature threshold is the temperature, at which the heat control starts.
An electrical switching apparatus housing assembly for an electrical switching apparatus assembly , said electrical switching apparatus housing assembly comprising: a body assembly including a number of outer walls and a cover assembly ; said outer walls defining an enclosed space ; said cover assembly including a generally planar top sidewall and a generally planar inner member ; said inner member disposed in a plane generally parallel to, but spaced from, said top sidewall ; said top sidewall and said inner member defining a limited opening to said enclosed space ; a movable door member , said door member movably coupled to said top sidewall ; and a channel which is defined by an inner surface of the top sidewall as well as said inner planar member , wherein the movable door member is a translating door member , spacing between the top sidewall and the inner member generally corresponds to the thickness, or is slightly greater than the thickness of, the translating door member , and wherein said translating door member is movable between an open, first position, wherein said translating door member is disposed between the top sidewall and the inner member , and a closed, second position, wherein said door member is disposed in said limited opening . a body assembly including a number of outer walls and a cover assembly ; said outer walls defining an enclosed space ; said cover assembly including a generally planar top sidewall and a generally planar inner member ; said inner member disposed in a plane generally parallel to, but spaced from, said top sidewall ; said top sidewall and said inner member defining a limited opening to said enclosed space ; a movable door member , said door member movably coupled to said top sidewall ; and a channel which is defined by an inner surface of the top sidewall as well as said inner planar member , wherein the movable door member is a translating door member , spacing between the top sidewall and the inner member generally corresponds to the thickness, or is slightly greater than the thickness of, the translating door member , and wherein said translating door member is movable between an open, first position, wherein said translating door member is disposed between the top sidewall and the inner member , and a closed, second position, wherein said door member is disposed in said limited opening .
A method for producing a carbon nanotube aggregate, comprising calcining aluminum hydroxide at a primary calcination temperature of 300°C to 500°C to form a support comprising 30 wt% or more of AIO(OH), supporting a catalytic metal precursor on the support, calcining the catalyst-containing support at a secondary calcination temperature of 550°C to 800°C to obtain a supported catalyst, and bringing the supported catalyst into contact with a carbon-containing compound under heating to react with each other wherein the primary calcination temperature, the secondary calcination temperature, the amount of the catalyst supported or the reaction time is controlled such that the carbon nanotube aggregate has a bulk density of 10 kg/m 3 or more, wherein the catalytic metal comprises Co and V; at least a portion of the carbon nanotube aggregate is of a bundle type; and the method further comprises adding an organic acid such that the molar ratio of catalytic metal to organic acids is from 5:1 to 30:1 during the preparation of the supported catalyst, and the bulk density of the carbon nanotube aggregate is controlled by varying the amount of the organic acid added. wherein the catalytic metal comprises Co and V; at least a portion of the carbon nanotube aggregate is of a bundle type; and the method further comprises adding an organic acid such that the molar ratio of catalytic metal to organic acids is from 5:1 to 30:1 during the preparation of the supported catalyst, and the bulk density of the carbon nanotube aggregate is controlled by varying the amount of the organic acid added.
An automatic fluid injection device, the device comprising a base body , for coming into contact with an injection zone, a support assembly slidably mounted relative to the base body and supporting an actuator mechanism that is controlled by power supply means , at least a priming piston ensuring the moving of said support assembly relative to said base body , at least one fluid reservoir , each containing an injection piston , arranged in said base body , a needle assembly fixed relative to the base body and comprising an insertion actuator , needle movement means , a priming needle for associating with each reservoir and penetrating into said reservoir before moving said piston , and an injection needle for penetrating into the injection zone and for injecting the content(s) of said reservoir(s) into said injection zone, said device including at least one actuator button triggering the priming, the insertion of the injection needle into the injection zone, the administration of fluid and then the retraction of the injection needle.
An apparatus comprising: an end effector for grasping a material (T); a drive system coupled to the end effector; and a processor configured to: use the drive system to clamp the material (T) using the end effector, wherein the clamp of the material (T) corresponds to a separation parameter (S) of the end effector being within a predetermined range of separation; measure the separation parameter (S); and said processor being characterized in that it is further configured to after the separation parameter (S) indicates clamping of the material (T), display, on a user interface display , an indicator of whether it is advisable to proceed with stapling of the clamped material (T), wherein the indicator includes an indication to proceed with the stapling of the material (T) after a recommended wait time has elapsed. an end effector for grasping a material (T); a drive system coupled to the end effector; and a processor configured to: use the drive system to clamp the material (T) using the end effector, wherein the clamp of the material (T) corresponds to a separation parameter (S) of the end effector being within a predetermined range of separation; measure the separation parameter (S); and said processor being characterized in that it is further configured to after the separation parameter (S) indicates clamping of the material (T), display, on a user interface display , an indicator of whether it is advisable to proceed with stapling of the clamped material (T), wherein the indicator includes an indication to proceed with the stapling of the material (T) after a recommended wait time has elapsed. use the drive system to clamp the material (T) using the end effector, wherein the clamp of the material (T) corresponds to a separation parameter (S) of the end effector being within a predetermined range of separation; measure the separation parameter (S); and said processor being characterized in that it is further configured to after the separation parameter (S) indicates clamping of the material (T), display, on a user interface display , an indicator of whether it is advisable to proceed with stapling of the clamped material (T), wherein the indicator includes an indication to proceed with the stapling of the material (T) after a recommended wait time has elapsed.
A medical system for detecting amyloid brain plaque, said medical system comprising: at least one processor programmed to: receive a positron emission tomography (PET) image of a brain, the PET image generated from a radiotracer binding to amyloid brain plaque; generate a cortical profile from the PET image, the cortical profile describing cortical tracer uptake to varying projection depths inside the cortex of the brain; and at least one of: 1) quantitatively assess the PET image using the cortical profile; and 2) display at least a portion of the cortical profile; characterized in that the at least one processor is further programmed to: generate cortical surface projections at the varying projection depths from the PET image, wherein each of the cortical surface projections is a projection of a cortical tracer uptake value between a projection depth to the cortex surface of the brain, and wherein the cortical profile is generated from the cortical surface projections, the projections being a statistic regarding the uptake values along a ray spanning between the projected point on the cortex surface and its corresponding point at the given projection depth. at least one processor programmed to: receive a positron emission tomography (PET) image of a brain, the PET image generated from a radiotracer binding to amyloid brain plaque; generate a cortical profile from the PET image, the cortical profile describing cortical tracer uptake to varying projection depths inside the cortex of the brain; and at least one of: 1) quantitatively assess the PET image using the cortical profile; and 2) display at least a portion of the cortical profile; receive a positron emission tomography (PET) image of a brain, the PET image generated from a radiotracer binding to amyloid brain plaque; generate a cortical profile from the PET image, the cortical profile describing cortical tracer uptake to varying projection depths inside the cortex of the brain; and at least one of: 1) quantitatively assess the PET image using the cortical profile; and 2) display at least a portion of the cortical profile; characterized in that the at least one processor is further programmed to: generate cortical surface projections at the varying projection depths from the PET image, wherein each of the cortical surface projections is a projection of a cortical tracer uptake value between a projection depth to the cortex surface of the brain, and wherein the cortical profile is generated from the cortical surface projections, the projections being a statistic regarding the uptake values along a ray spanning between the projected point on the cortex surface and its corresponding point at the given projection depth.