mhurhangee/ep-ind-claims huggingface dataset:
A positive electrode material for a lithium secondary battery, comprising: a first positive electrode active material and a second positive electrode active material, wherein the first positive electrode active material and the second positive electrode active material are lithium composite transition metal oxides containing transition metals comprising nickel (Ni), cobalt (Co) and manganese (Mn), the average particle size (D 50) of the first positive electrode active material is larger than that of the second positive electrode active material, a ratio (Li/Me) 1 of the mole number of lithium with respect to the total mole number of transition metals of the first positive electrode active material is more than 1 to 1.5 or less, a ratio (Li/Me) 2 of the mole number of lithium (Li) with respect to the total mole number of transition metals of the second positive electrode active material is 0.9 to 1, and the second positive electrode active material has a crystallite size of 180 nm or more wherein the crystallite size is determined using the peak broadening of XRD data of the second positive electrode active materials, and quantitatively calculated by the Scherrer equation, and wherein the average particle size (D 50) corresponds to 50% volumetric accumulation in a particle size distribution curve as measured by laser diffraction using ultrasonic waves of 28 kHz applied at 60W output on a dispersion of the positive electrode active material. a first positive electrode active material and a second positive electrode active material, wherein the first positive electrode active material and the second positive electrode active material are lithium composite transition metal oxides containing transition metals comprising nickel (Ni), cobalt (Co) and manganese (Mn), the average particle size (D 50) of the first positive electrode active material is larger than that of the second positive electrode active material, a ratio (Li/Me) 1 of the mole number of lithium with respect to the total mole number of transition metals of the first positive electrode active material is more than 1 to 1.5 or less, a ratio (Li/Me) 2 of the mole number of lithium (Li) with respect to the total mole number of transition metals of the second positive electrode active material is 0.9 to 1, and the second positive electrode active material has a crystallite size of 180 nm or more wherein the crystallite size is determined using the peak broadening of XRD data of the second positive electrode active materials, and quantitatively calculated by the Scherrer equation, and wherein the average particle size (D 50) corresponds to 50% volumetric accumulation in a particle size distribution curve as measured by laser diffraction using ultrasonic waves of 28 kHz applied at 60W output on a dispersion of the positive electrode active material.
A self-moving cleaning device, comprising: a base; a mobile module adjacent to the base and configured to contact a surface when the self-moving cleaning device moves on the surface; a vacuum module arranged over the base; a dust box arranged over the base and connected to the vacuum module, the dust box comprising a first opening and a second opening; a roller brush device arranged on the base characterized in that a first suction port arranged on the base and comprising a first suction inlet connected to the first opening; a second suction port arranged on the base and comprising a second suction inlet connected to the second opening, the first suction port disposed between a front side of the base and the second suction port; the roller brush device arranged within the second suction port; and an air duct, wherein the first suction port is connected to the dust box through the air duct to thereby connect the first suction inlet to the first opening. a base; a mobile module adjacent to the base and configured to contact a surface when the self-moving cleaning device moves on the surface; a vacuum module arranged over the base; a dust box arranged over the base and connected to the vacuum module, the dust box comprising a first opening and a second opening; a roller brush device arranged on the base characterized in that a first suction port arranged on the base and comprising a first suction inlet connected to the first opening; a second suction port arranged on the base and comprising a second suction inlet connected to the second opening, the first suction port disposed between a front side of the base and the second suction port; the roller brush device arranged within the second suction port; and an air duct, wherein the first suction port is connected to the dust box through the air duct to thereby connect the first suction inlet to the first opening.
A method for adjusting a sound output of a playback device based on an orientation of the playback device, the method comprising: when the playback device has a first particular orientation, causing at least one speaker of the playback device to output one of: a first range of frequencies of an audio data stream; and a first equalization setting; and when the playback device has a second particular orientation, causing at least one speaker of the playback device to output one of: a second range of frequencies of the audio data stream; and a second equalization setting. when the playback device has a first particular orientation, causing at least one speaker of the playback device to output one of: a first range of frequencies of an audio data stream; and a first equalization setting; and a first range of frequencies of an audio data stream; and a first equalization setting; and when the playback device has a second particular orientation, causing at least one speaker of the playback device to output one of: a second range of frequencies of the audio data stream; and a second equalization setting. a second range of frequencies of the audio data stream; and a second equalization setting.
A vibrating element meter configured to perform meter health verification, the vibrating element meter comprising: a sensor assembly including a vibrating member, a pickoff/detection sensor, and a driver configured to vibrate the vibrating member; at least one temperature sensor; and meter electronics coupled to the pickoff/detection sensor, the driver, and the at least one temperature sensor, with the meter electronics being configured to measure a plurality of temperatures using the at least one temperature sensor, characterized in that: the meter electronics is further configured to measure a sequence of sensor time periods using the sensor assembly, the sensor time period being the inverse of the resonant frequency of the vibrating member, determine an average temperature from the plurality of temperatures, determine an average sensor time period from the sequence of sensor time periods, compensate the average sensor time period using the average temperature to generate a compensated sensor time period, compare the compensated sensor time period to a reference sensor time period, and indicate whether the compensated sensor time period is within a sensor time period error limit of the reference sensor time period. a sensor assembly including a vibrating member, a pickoff/detection sensor, and a driver configured to vibrate the vibrating member; at least one temperature sensor; and meter electronics coupled to the pickoff/detection sensor, the driver, and the at least one temperature sensor, with the meter electronics being configured to measure a plurality of temperatures using the at least one temperature sensor, characterized in that: the meter electronics is further configured to measure a sequence of sensor time periods using the sensor assembly, the sensor time period being the inverse of the resonant frequency of the vibrating member, determine an average temperature from the plurality of temperatures, determine an average sensor time period from the sequence of sensor time periods, compensate the average sensor time period using the average temperature to generate a compensated sensor time period, compare the compensated sensor time period to a reference sensor time period, and indicate whether the compensated sensor time period is within a sensor time period error limit of the reference sensor time period.
A method for making a composite structure or a portion of a composite structure of a braking band of a brake disc comprising at least the following steps: - making a composite ceramic structure, comprising silicon, silicon carbides and carbon not bonded to silicon, obtaining a body of a braking band comprising at least one braking surface, said carbon not bonded to silicon being present substantially in the form of carbon fibre filaments; - processing said braking surface removing a surface layer so as to have said carbon not bonded with silicon on the surface; - removing at least partly and mainly selectively the carbon not bonded with silicon from the surface, leaving silicon and silicon carbides, said removing step being performed after said processing step, said step of removing the carbon not bonded with silicon being carried out by cleaning said braking surfaces with abrasive jet or by combustion; - depositing an anchoring substrate directly on said braking surface from which the carbon not bonded with silicon has been at least partly and mainly selectively removed; and - depositing a protective coating on said anchoring substrate. - making a composite ceramic structure, comprising silicon, silicon carbides and carbon not bonded to silicon, obtaining a body of a braking band comprising at least one braking surface, said carbon not bonded to silicon being present substantially in the form of carbon fibre filaments; - processing said braking surface removing a surface layer so as to have said carbon not bonded with silicon on the surface; - removing at least partly and mainly selectively the carbon not bonded with silicon from the surface, leaving silicon and silicon carbides, said removing step being performed after said processing step, said step of removing the carbon not bonded with silicon being carried out by cleaning said braking surfaces with abrasive jet or by combustion; - depositing an anchoring substrate directly on said braking surface from which the carbon not bonded with silicon has been at least partly and mainly selectively removed; and - depositing a protective coating on said anchoring substrate.
A piezoelectric element comprising: a platinum first electrode; a piezoelectric layer comprising a complex oxide having a perovskite structure which comprises bismuth, barium, iron, manganese and titanium; a second electrode; and a layered compound portion comprising iron, barium, titanium and oxygen between the piezoelectric layer and the first electrode. a platinum first electrode; a piezoelectric layer comprising a complex oxide having a perovskite structure which comprises bismuth, barium, iron, manganese and titanium; a second electrode; and a layered compound portion comprising iron, barium, titanium and oxygen between the piezoelectric layer and the first electrode.
Hydrodynamic sliding bearing having a bearing shell whose inner surface forms a bearing surface for a rotation shaft, wherein the bearing surface has at least two surface portions (6, 7), which are arranged one behind the other in the circumferential direction of the bearing shell, to form a bearing having a multi-wedge bore, wherein at least one surface portion forms a load segment and at least one surface portion forms a non-load segment, wherein in each case a circle (K1, K2) can be inscribed in the at least two surface portions (6, 7) in an axial section and has a greater radius (R1, R2) than the radius (Rw) of the rotation shaft, and wherein the centre points (M1, M2) of the at least two inscribable circles (K1, K2) each have an eccentricity (e1, e2) with respect to the centre point of the bearing shell, wherein the centre points (M1, M2) of the circles (K1, K2) which can be inscribed in the at least two surface portions (6, 7) are arranged in an offset plane running through the centre point of the bearing shell, and the respective eccentricity (e1, e2) corresponds to the distance of the centre point (M1, M2) of the inscribable circle (K1, K2) from the centre point of the bearing shell in the offset plane; the at least two surface portions (6, 7) adjoin an offset (12, 13) arranged between them, and two offsets (12, 13) arranged between surface portions (6, 7) are arranged diametrically opposite one another in an offset point plane running through the centre point of the bearing shell, wherein the offset point plane is arranged at an offset angle (γ) to the offset plane, wherein the offset angle (γ) is between 0° and 40°, wherein a virtual parting line plane is arranged pivoted with respect to the offset point plane at a parting line angle (θ), characterized in that the eccentricity of the load segment is greater than the eccentricity of the non-load segment.
A memory device, comprising: a first number of controllable components; and a controller storing and executing a set of microcode instructions, each microcode instruction of the set comprising: a number of control data bits (295, 395); and characterized in that each microcode instruction further comprises: a number of type select data bits (293-1,..., 293-4, 393-1,..., 393-4), wherein a value stored in the type select data bits (293-1,..., 293-4, 393-1,..., 393-4) indicates a particular instruction type (295-1,...., 295-4, 395-1,..., 395-4) of each microcode instruction of the set; wherein, during execution by the controller, an operation is selected based on the particular instruction type and the operation is performed by controlling a respective group of the controllable components using the control data bits; and wherein the respective group of the controllable components comprises fewer components than the first number of controllable components. a first number of controllable components; and a controller storing and executing a set of microcode instructions, each microcode instruction of the set comprising: a number of control data bits (295, 395); and characterized in that each microcode instruction further comprises: a number of type select data bits (293-1,..., 293-4, 393-1,..., 393-4), wherein a value stored in the type select data bits (293-1,..., 293-4, 393-1,..., 393-4) indicates a particular instruction type (295-1,...., 295-4, 395-1,..., 395-4) of each microcode instruction of the set; a number of control data bits (295, 395); and characterized in that each microcode instruction further comprises: a number of type select data bits (293-1,..., 293-4, 393-1,..., 393-4), wherein a value stored in the type select data bits (293-1,..., 293-4, 393-1,..., 393-4) indicates a particular instruction type (295-1,...., 295-4, 395-1,..., 395-4) of each microcode instruction of the set; wherein, during execution by the controller, an operation is selected based on the particular instruction type and the operation is performed by controlling a respective group of the controllable components using the control data bits; and wherein the respective group of the controllable components comprises fewer components than the first number of controllable components.
A work vehicle comprising: - a mission case provided with an opening that allows injection of transmission oil; - a floor mat located above the mission case and near a driver's seat, the floor mat having an opening / closing part configured to be opened in an open state in which the opening is exposed and configured to be closed in a closed state in which the opening is covered; and - a fixing part configured to fix the opening / closing part in the closed state; wherein - the opening / closing part includes a protrusion protruding in a predetermined direction, and - the fixing part comprises a hole configured to fix the opening / closing part when the protrusion is inserted into the hole. - a mission case provided with an opening that allows injection of transmission oil; - a floor mat located above the mission case and near a driver's seat, the floor mat having an opening / closing part configured to be opened in an open state in which the opening is exposed and configured to be closed in a closed state in which the opening is covered; and - a fixing part configured to fix the opening / closing part in the closed state; - the opening / closing part includes a protrusion protruding in a predetermined direction, and - the fixing part comprises a hole configured to fix the opening / closing part when the protrusion is inserted into the hole.
A money item singulator comprising: a rotatable money item conveying element with a circumferential surface; and a static peripheral guide wall; the conveying element including: at least one money item conveying region comprising an indentation in the circumferential surface of the rotatable conveying element, the indentation including a money item conveying surface and a money item singulating surface configured to abut the edge of a money item in the conveying region, wherein: during a first stage of a rotation path of the conveying element, a first stable region for a money item is provided in an outer part of the indentation in the conveying element by the conveying surface and the peripheral guide wall; and during a second stage of the rotation path of the conveying element a second stable region for a money item is provided in an inner part of the conveying element by the singulating surface for a money item previously in the first stable region, wherein the second stable region in the inner part of the conveying element supports only a single money item; wherein the peripheral guide wall has a region of reduced height to singulate money items during the first stage of the rotation path of the conveying element. a rotatable money item conveying element with a circumferential surface; and a static peripheral guide wall; the conveying element including: at least one money item conveying region comprising an indentation in the circumferential surface of the rotatable conveying element, the indentation including a money item conveying surface and a money item singulating surface configured to abut the edge of a money item in the conveying region, wherein: during a first stage of a rotation path of the conveying element, a first stable region for a money item is provided in an outer part of the indentation in the conveying element by the conveying surface and the peripheral guide wall; and during a second stage of the rotation path of the conveying element a second stable region for a money item is provided in an inner part of the conveying element by the singulating surface for a money item previously in the first stable region, wherein the second stable region in the inner part of the conveying element supports only a single money item; wherein the peripheral guide wall has a region of reduced height to singulate money items during the first stage of the rotation path of the conveying element. during a first stage of a rotation path of the conveying element, a first stable region for a money item is provided in an outer part of the indentation in the conveying element by the conveying surface and the peripheral guide wall; and during a second stage of the rotation path of the conveying element a second stable region for a money item is provided in an inner part of the conveying element by the singulating surface for a money item previously in the first stable region, wherein the second stable region in the inner part of the conveying element supports only a single money item; wherein the peripheral guide wall has a region of reduced height to singulate money items during the first stage of the rotation path of the conveying element.
A method of washing fabric articles in a continuous batch tunnel washer, comprising the steps of: a) providing a continuous batch tunnel washer having an interior, an intake, a discharge, a plurality of modules, and a volume of liquid; b) moving the fabric articles from the intake to the modules and then to the discharge in sequence; c) wherein in step "b" multiple of the modules define dual use modules that function initially as wash modules and then after washing is completed as rinse modules; d) adding a washing chemical to the volume of liquid in the dual use modules; e) not counter flowing a rinsing liquid in the washer interior for a selected time interval after step "d"; f) after step "e", counter flowing a rinsing liquid in the dual use modules along a flow path (28, 43, 44) that is opposite the direction of travel of the fabric articles in steps "b" and "c"; g) during step "f" boosting pressure of the counter flowing rinsing liquid with at least one booster pump (41, 42) at one or more positions spaced in between the intake and the discharge, said one or more booster pumps (41, 42) configured to elevate and maintain a selected flow pressure head of the counter flowing rinsing fluid over at least three of said dual use modules. a) providing a continuous batch tunnel washer having an interior, an intake, a discharge, a plurality of modules, and a volume of liquid; b) moving the fabric articles from the intake to the modules and then to the discharge in sequence; c) wherein in step "b" multiple of the modules define dual use modules that function initially as wash modules and then after washing is completed as rinse modules; d) adding a washing chemical to the volume of liquid in the dual use modules; e) not counter flowing a rinsing liquid in the washer interior for a selected time interval after step "d"; f) after step "e", counter flowing a rinsing liquid in the dual use modules along a flow path (28, 43, 44) that is opposite the direction of travel of the fabric articles in steps "b" and "c"; g) during step "f" boosting pressure of the counter flowing rinsing liquid with at least one booster pump (41, 42) at one or more positions spaced in between the intake and the discharge, said one or more booster pumps (41, 42) configured to elevate and maintain a selected flow pressure head of the counter flowing rinsing fluid over at least three of said dual use modules.
A method for calibrating a plurality of environment sensors in a vehicle, wherein a detection and identification of traffic light signals from the data of at least one environment sensor is performed, wherein a calibration of a plurality of environment sensors is performed upon identifying that a traffic light signal relevant for the vehicle has turned red, wherein the calibration is not performed until the vehicle is stationary.