mhurhangee/ep-ind-claims huggingface dataset:
A sandwich structure assembly comprising: a sandwich structure (204; 600; 1800) comprising a cavity (302; 608; 1808) therein; a structural insert (300; 606; 1806) adapted to be received in the cavity (302; 608; 1808), said structural insert (300; 606; 1806) having: - a first part (304; 610; 1810) configured to receive a load (310; 1814) and spread said load (310; 1814) across a surface of said structural insert; and - two second parts (306; 612; 1812) configured to be assembled with said first part (304; 610; 1810) to form said structural insert (300; 606; 1806), wherein the structural insert (300; 606; 1806) has a circular or ellipsoid cross section, said cavity (302; 608; 1808) has a similar cross section, said first part (304; 610; 1810) fits in between said two second parts (306; 612; 1812), said first part (304; 610; 1810) and said two second parts (306; 612; 1812) being located in said cavity (302; 608; 1808). a sandwich structure (204; 600; 1800) comprising a cavity (302; 608; 1808) therein; a structural insert (300; 606; 1806) adapted to be received in the cavity (302; 608; 1808), said structural insert (300; 606; 1806) having: - a first part (304; 610; 1810) configured to receive a load (310; 1814) and spread said load (310; 1814) across a surface of said structural insert; and - two second parts (306; 612; 1812) configured to be assembled with said first part (304; 610; 1810) to form said structural insert (300; 606; 1806), wherein the structural insert (300; 606; 1806) has a circular or ellipsoid cross section, said cavity (302; 608; 1808) has a similar cross section, said first part (304; 610; 1810) fits in between said two second parts (306; 612; 1812), said first part (304; 610; 1810) and said two second parts (306; 612; 1812) being located in said cavity (302; 608; 1808). - a first part (304; 610; 1810) configured to receive a load (310; 1814) and spread said load (310; 1814) across a surface of said structural insert; and - two second parts (306; 612; 1812) configured to be assembled with said first part (304; 610; 1810) to form said structural insert (300; 606; 1806),
A method of generating electrode stimulation signals for an implanted electrode array, the method comprising: processing an acoustic audio signal to generate a plurality of band pass signals, each of which represents an associated band of audio frequencies; for each band pass signal, extracting fine time structure information to determine a sequence of phase event signals; for each band pass signal, generating a sampling grid of a given rate; for each band pass signal, generating a set of electrode stimulation signals by sampling the envelope of said band pass signal at said given rate according to said sampling grid and weighting the sampled envelope with a desired pulse shape; further wherein for each sequence of phase event signals, when the number of phase event signals reaches a channel pitch rate factor, a signal limiting period is introduced into the sampling grid, such that a corresponding period without signals is introduced to the set of stimulation signals. processing an acoustic audio signal to generate a plurality of band pass signals, each of which represents an associated band of audio frequencies; for each band pass signal, extracting fine time structure information to determine a sequence of phase event signals; for each band pass signal, generating a sampling grid of a given rate; for each band pass signal, generating a set of electrode stimulation signals by sampling the envelope of said band pass signal at said given rate according to said sampling grid and weighting the sampled envelope with a desired pulse shape; further wherein for each sequence of phase event signals, when the number of phase event signals reaches a channel pitch rate factor, a signal limiting period is introduced into the sampling grid, such that a corresponding period without signals is introduced to the set of stimulation signals.
Procedure for the cultivation of mushrooms comprising at least the steps of: - preparing at least a bed of at least a substrate for the growth of mushrooms containing mycelia; - wetting said substrate with dampening water; - growing said mushrooms; and - harvesting said mushrooms; - mixing water with chlorine dioxide to obtain said dampening water; characterized by the fact that said wetting comprises the use of a daily amount of said dampening water comprised between 10 and 20 liters per m 2 of said substrate. - preparing at least a bed of at least a substrate for the growth of mushrooms containing mycelia; - wetting said substrate with dampening water; - growing said mushrooms; and - harvesting said mushrooms; - mixing water with chlorine dioxide to obtain said dampening water; characterized by the fact that said wetting comprises the use of a daily amount of said dampening water comprised between 10 and 20 liters per m 2 of said substrate.
An inverter apparatus comprising: a front panel; a main circuit substrate configured to convert power; an electromagnetic compatibility, EMC, filter substrate stacked on a surface of the main circuit substrate facing the front panel, the EMC filter substrate being configured to reduce propagation of noise; and a control substrate stacked on a surface of the EMC filter substrate facing the front panel, the control substrate being configured to control the main circuit substrate, wherein the EMC filter substrate comprises an input terminal through which the power is input into the inverter apparatus, and wherein the main circuit substrate comprises an output terminal through which the power is output from the inverter apparatus. a front panel; a main circuit substrate configured to convert power; an electromagnetic compatibility, EMC, filter substrate stacked on a surface of the main circuit substrate facing the front panel, the EMC filter substrate being configured to reduce propagation of noise; and a control substrate stacked on a surface of the EMC filter substrate facing the front panel, the control substrate being configured to control the main circuit substrate, wherein the EMC filter substrate comprises an input terminal through which the power is input into the inverter apparatus, and wherein the main circuit substrate comprises an output terminal through which the power is output from the inverter apparatus.
A microwave ablation control system, comprising: an energy-delivery device insertable into tissue and operably coupled to an electrosurgical power generating source; at least one microwave field-detecting needle (100; 400; 1610) configured to detect a microwave field intensity emitted by the energy-delivery device, the at least one microwave field-detecting needle (100; 400; 1610) including a junction structure (50; 1650) defining at least one recess (56; 1656) therein, each recess (56; 1656) configured to receive a rectifier element (58; 1658) therein; and a control unit in operable communication with the at least one microwave field-detecting needle (100; 400; 1610), the control unit configured to adjust energy delivered by the energy-delivery device based on the microwave field intensity detected by the at least one microwave field-detecting needle (100; 400; 1610); wherein the at least one microwave field-detecting needle (100; 400; 1610) includes a distal portion and a proximal portion and the junction member (50; 1650) is disposed between the distal portion and the proximal portion. an energy-delivery device insertable into tissue and operably coupled to an electrosurgical power generating source; at least one microwave field-detecting needle (100; 400; 1610) configured to detect a microwave field intensity emitted by the energy-delivery device, the at least one microwave field-detecting needle (100; 400; 1610) including a junction structure (50; 1650) defining at least one recess (56; 1656) therein, each recess (56; 1656) configured to receive a rectifier element (58; 1658) therein; and a control unit in operable communication with the at least one microwave field-detecting needle (100; 400; 1610), the control unit configured to adjust energy delivered by the energy-delivery device based on the microwave field intensity detected by the at least one microwave field-detecting needle (100; 400; 1610); wherein the at least one microwave field-detecting needle (100; 400; 1610) includes a distal portion and a proximal portion and the junction member (50; 1650) is disposed between the distal portion and the proximal portion.
An electronic component package, comprising: an electronic component storage container including: a main body including multiple recesses to store electronic components, the multiple recesses being positioned along a longitudinal direction of the main body and respectively including openings on one side in a height direction of the main body; a cover sheet to cover the openings of the recesses and removably attached to the main body; and a cover positioned such that the cover sheet is between the cover and the main body; and electronic components stored in the recesses of the electronic component storage container; characterised in that the electronic component package has a volume filling rate of the electronic components in at least one of the recesses of 50% or higher. a main body including multiple recesses to store electronic components, the multiple recesses being positioned along a longitudinal direction of the main body and respectively including openings on one side in a height direction of the main body; a cover sheet to cover the openings of the recesses and removably attached to the main body; and a cover positioned such that the cover sheet is between the cover and the main body; and electronic components stored in the recesses of the electronic component storage container; characterised in that the electronic component package has a volume filling rate of the electronic components in at least one of the recesses of 50% or higher.
A method of operating an electrochemical analyte sensor for use in in vivo measurements having one or more electrodes (24, 28, 32), comprising: • applying a time-varying input signal to at least one of the one or more electrodes (24, 28, 32), • monitoring a time-varying output signal produced by the sensor in response to application of the time-varying input signal, • determining a complex impedance of the sensor based on the time-varying input and output signals, and • determining from the complex impedance information relating to operation of the sensor, wherein determining from the complex impedance information relating to operation of the sensor comprises determining from the complex impedance diagnostic information relating to reliability of analyte measurement information produced by the sensor, wherein the sensor includes a reagent layer formed on a working electrode and a resistive layer or membrane is formed over the combination working electrode and reagent layer and the resistive layer or membrane is formed of a biocompatible polymer that hinders the diffusion of enzymes from the working electrode. • applying a time-varying input signal to at least one of the one or more electrodes (24, 28, 32), • monitoring a time-varying output signal produced by the sensor in response to application of the time-varying input signal, • determining a complex impedance of the sensor based on the time-varying input and output signals, and • determining from the complex impedance information relating to operation of the sensor, wherein determining from the complex impedance information relating to operation of the sensor comprises determining from the complex impedance diagnostic information relating to reliability of analyte measurement information produced by the sensor,
A method for manufacturing a stacked photoelectric conversion device comprising a crystalline silicon-based photoelectric conversion unit including a crystalline silicon substrate, and a thin-film photoelectric conversion unit including a light absorbing layer containing perovskite-type crystal material and arranged on the crystalline silicon-based photoelectric conversion unit, wherein the light-receiving surface of the crystalline silicon-based photoelectric conversion unit has a texture with an average morphology height of 0.5 μm or more, the method comprising the steps of providing the crystalline silicon-based photoelectric conversion unit having a textured structure on a light-receiving surface, wherein the crystalline silicon substrate included in the crystalline silicon-based photoelectric conversion unit has a textured structure on a light-receiving surface, forming an intermediate transparent conductive layer on the light-receiving surface of the crystalline silicon-based photoelectric conversion unit; and forming the thin-film photoelectric conversion unit on the intermediate transparent conductive layer, wherein at least a part of the thin-film photoelectric conversion unit is deposited by a wet method, characterizing in that in formation of the intermediate transparent conductive layer, a first conductive oxide layer is deposited by an MOCVD method so as to fill recesses of the texture on the light-receiving surface of the crystalline silicon-based photoelectric conversion unit, and cover tops of projections of the texture, and a heterogeneous layer is formed on a surface of the first conductive oxide layer. the method comprising the steps of providing the crystalline silicon-based photoelectric conversion unit having a textured structure on a light-receiving surface, wherein the crystalline silicon substrate included in the crystalline silicon-based photoelectric conversion unit has a textured structure on a light-receiving surface, forming an intermediate transparent conductive layer on the light-receiving surface of the crystalline silicon-based photoelectric conversion unit; and forming the thin-film photoelectric conversion unit on the intermediate transparent conductive layer, wherein at least a part of the thin-film photoelectric conversion unit is deposited by a wet method, characterizing in that in formation of the intermediate transparent conductive layer, a first conductive oxide layer is deposited by an MOCVD method so as to fill recesses of the texture on the light-receiving surface of the crystalline silicon-based photoelectric conversion unit, and cover tops of projections of the texture, and a heterogeneous layer is formed on a surface of the first conductive oxide layer. a first conductive oxide layer is deposited by an MOCVD method so as to fill recesses of the texture on the light-receiving surface of the crystalline silicon-based photoelectric conversion unit, and cover tops of projections of the texture, and a heterogeneous layer is formed on a surface of the first conductive oxide layer.
An automatic analysis device comprising: an incubator in which a reaction vessel (2; 102) is arranged; a dispensing mechanism (8; 9) that includes a nozzle movable upward or downward and is configured to dispense a sample or a reagent into the reaction vessel; and a control unit configured to control the dispensing mechanism to agitate a mixed liquid of the sample and the reagent in the reaction vessel, wherein the dispensing mechanism is configured to agitate the mixed liquid by suctioning the mixed liquid in the reaction vessel by the nozzle and then re-discharging the suctioned mixed liquid into the reaction vessel, characterized in that, when re-discharging the mixed liquid into the reaction vessel, the control unit is configured to move the nozzle upward during a first period at a speed higher than a speed at which a liquid surface of the mixed liquid rises due to the re-discharging of the mixed liquid from the nozzle, and to lower the speed of moving the nozzle upward during a second period following the first period to be below the speed during the first period while maintaining or reducing the speed at which the liquid surface of the mixed liquid rises due to re-discharging of the mixed liquid from the nozzle, wherein the control unit is configured to determine the speed of moving the nozzle upward during the first period such that a tip of the nozzle is located near the liquid surface of the mixed liquid at the end of the first period. an incubator in which a reaction vessel (2; 102) is arranged; a dispensing mechanism (8; 9) that includes a nozzle movable upward or downward and is configured to dispense a sample or a reagent into the reaction vessel; and a control unit configured to control the dispensing mechanism to agitate a mixed liquid of the sample and the reagent in the reaction vessel, wherein the dispensing mechanism is configured to agitate the mixed liquid by suctioning the mixed liquid in the reaction vessel by the nozzle and then re-discharging the suctioned mixed liquid into the reaction vessel, characterized in that, when re-discharging the mixed liquid into the reaction vessel, the control unit is configured to move the nozzle upward during a first period at a speed higher than a speed at which a liquid surface of the mixed liquid rises due to the re-discharging of the mixed liquid from the nozzle, and to lower the speed of moving the nozzle upward during a second period following the first period to be below the speed during the first period while maintaining or reducing the speed at which the liquid surface of the mixed liquid rises due to re-discharging of the mixed liquid from the nozzle, wherein the control unit is configured to determine the speed of moving the nozzle upward during the first period such that a tip of the nozzle is located near the liquid surface of the mixed liquid at the end of the first period.
Method for controlling a refrigerator including at least one refrigeration compartment which can be closed by at least one door, a refrigerant circuit comprising a compressor and a control apparatus which is suited to switching the compressor on or off, having the following method steps: a) determining the temperature prevailing in the refrigeration compartment; b) comparing the temperature with a maximum temperature ( T max); c) comparing the temperature with a minimum temperature ( T min); d) switching the compressor on if the temperature exceeds the maximum temperature ( T max); e) switching the compressor off if the temperature falls below the minimum temperature ( T min); f) alternately switching the compressor on during a switch-on duration ( t on) and switching the compressor off during a switch-off duration ( t off) if the temperature lies below the maximum temperature ( T max) and above the minimum temperature ( T min); characterised by the following method step: g) changing the switch-off duration ( t off) as a function of the temperature. a) determining the temperature prevailing in the refrigeration compartment; b) comparing the temperature with a maximum temperature ( T max); c) comparing the temperature with a minimum temperature ( T min); d) switching the compressor on if the temperature exceeds the maximum temperature ( T max); e) switching the compressor off if the temperature falls below the minimum temperature ( T min); f) alternately switching the compressor on during a switch-on duration ( t on) and switching the compressor off during a switch-off duration ( t off) if the temperature lies below the maximum temperature ( T max) and above the minimum temperature ( T min); characterised by the following method step: g) changing the switch-off duration ( t off) as a function of the temperature.
A refrigerator comprising: a main body having a first and a second storage compartment in which food is stored; a door configured to move forward of the second storage compartment to open the storage compartment; a receptacle to be moved along with the door and received in the second storage compartment, the receptacle serving to store food therein; a camera installed to the main body to capture an image of the receptacle; a control unit configured to combine an image captured by the camera in a closed state of the door and an image captured by the camera in an open state of the door with each other and configured to correct the images into an image showing the receptacle; and a display unit configured to show the corrected image to a user, wherein the main body is provided with a barrier to structurally separate the first storage compartment and the second storage compartment from each other, configured to horizontally extend such that the second storage compartment is defined below the barrier; the camera is mounted to the barrier; at least one light source is installed in the second storage compartment to emit light to the second storage compartment; and the control unit is configured to control the light source to allow the light source to emit light to the receptacle when the camera takes a picture. a main body having a first and a second storage compartment in which food is stored; a door configured to move forward of the second storage compartment to open the storage compartment; a receptacle to be moved along with the door and received in the second storage compartment, the receptacle serving to store food therein; a camera installed to the main body to capture an image of the receptacle; a control unit configured to combine an image captured by the camera in a closed state of the door and an image captured by the camera in an open state of the door with each other and configured to correct the images into an image showing the receptacle; and a display unit configured to show the corrected image to a user, wherein the main body is provided with a barrier to structurally separate the first storage compartment and the second storage compartment from each other, configured to horizontally extend such that the second storage compartment is defined below the barrier; the camera is mounted to the barrier; at least one light source is installed in the second storage compartment to emit light to the second storage compartment; and the control unit is configured to control the light source to allow the light source to emit light to the receptacle when the camera takes a picture.
A method for non-uniform sampling of a singularity point of a multi-channel Synthetic-Aperture Radar, SAR, system, the singularity point originating from non-uniform Pulse Repetition Frequency, PRF, comprising: determining a position of a singularity point and performing rejection of data for raw echoes of multiple channels; according to a frequency-domain reconstruction filter algorithm, reconstructing data remained after the rejection to obtain a reconstructed echo signal and performing imaging to obtain a first image; and reconstructing rejected data according to a frequency-domain reconstruction filter algorithm to obtain a reconstructed echo signal, performing imaging to obtain a second image, and superimposing the first image and the second image to obtain a third image. determining a position of a singularity point and performing rejection of data for raw echoes of multiple channels; according to a frequency-domain reconstruction filter algorithm, reconstructing data remained after the rejection to obtain a reconstructed echo signal and performing imaging to obtain a first image; and reconstructing rejected data according to a frequency-domain reconstruction filter algorithm to obtain a reconstructed echo signal, performing imaging to obtain a second image, and superimposing the first image and the second image to obtain a third image.