mhurhangee/patent-ind-claim-en huggingface dataset:
A slot die for manufacturing a rechargeable battery electrode, comprising: a first block ; a second block facing the first block; and a shim member positioned between the first block and the second block, the shim member having end portions spaced apart from one another to form a slot between the end portions and the facing surfaces of the first block and the second block for discharging an active material slurry at a discharge side of the slot, the first block includes a chamber for receiving the active material slurry, the slot die being characterized in that each of the end portions includes a width adjuster, A1, protruding to a second reference point, P2, from a first reference point, P1, of the shim member in the width direction by a first adjusting width (Lw), inclined to a third reference point, P3, from the second reference point with a first angle (θ 1 ) with respect to the discharging direction, and formed in the discharging direction by a first adjusting length (Ls), wherein the first and second reference points are on a first line parallel to the width direction and the first reference point and the third reference point are on a second line parallel to the discharging direction, wherein the first line is on sides of the end portions, the sides being the farthest from the discharge side of the slot, wherein a distance between the respective second reference points of the end portions is a width of the slot along the first line, and wherein the first angle is such that the slot gradually widens in the discharging direction from the second reference points to the third reference points. a first block ; a second block facing the first block; and a shim member positioned between the first block and the second block, the shim member having end portions spaced apart from one another to form a slot between the end portions and the facing surfaces of the first block and the second block for discharging an active material slurry at a discharge side of the slot, the first block includes a chamber for receiving the active material slurry, the slot die being characterized in that each of the end portions includes a width adjuster, A1, protruding to a second reference point, P2, from a first reference point, P1, of the shim member in the width direction by a first adjusting width (Lw), inclined to a third reference point, P3, from the second reference point with a first angle (θ 1 ) with respect to the discharging direction, and formed in the discharging direction by a first adjusting length (Ls), wherein the first and second reference points are on a first line parallel to the width direction and the first reference point and the third reference point are on a second line parallel to the discharging direction, wherein the first line is on sides of the end portions, the sides being the farthest from the discharge side of the slot, wherein a distance between the respective second reference points of the end portions is a width of the slot along the first line, and wherein the first angle is such that the slot gradually widens in the discharging direction from the second reference points to the third reference points.
An air duct connection system for connecting two air duct elements so as to form an air duct, having flange profiles which comprise a first chamber formed by profile legs and mountable onto the end of the air duct element and a second chamber formed by further profile legs which is disposed at an angle with respect to the first chamber , said second chamber being designed for receiving a leg of a corner bracket , the first profile leg of the first chamber and the first profile leg of the second chamber being oriented such as to form an L and the first profile leg of the second chamber having a backward-folded lug which is oriented essentially parallel to the first profile leg of the first chamber and forms an insertion pocket for receiving the end of the air duct element and the first profile leg of the first chamber comprising a backward-bent portion that extends outside of the first chamber , and an insertion chamber being formed which is provided adjacent to, and outside of, the first chamber in the prolongation of the backward-bent portion , and a fold of the backward-folded lug extending up to the transition portion between the second profile leg of the second chamber and the second profile leg of the first chamber , with two adjacent flange profiles being connected to each other in the corner region of the air duct element by a corner bracket and the respective leg of the corner bracket being inserted into the second chamber of the flange profile and the one end of the air duct element being inserted into the insertion pocket of the flange profile , characterised in that a sealing profile with a sealing profile body has an L-shaped cross-section and has a strip-shaped portion with a contact surface for an outer side of the first leg of the second chamber of a flange profile and comprises a profile portion that is insertable into the insertion chamber of the flange profile, and in that the sealing profile may be slid onto the flange profile(s) of the air duct element so as to extend along the flange profiles and the corner regions thus sealing the connection point between the respective end faces of two air duct elements .
Method for optimising an operating parameter of a combine harvester , comprising the following steps: (a) driving the combine harvester over a field at an at least approximately constant speed and/or constant throughput, at least until a processing procedure of the combine harvester has stabilized; (b) acquiring and storing in a processing unit data with regard to at least one sensor value for a parameter of the processing procedure in the combine harvester and the associated position of the combine harvester ; (c) transmitting the data with regard to the position to a handheld device equipped with a camera and a position determining device ; (d) moving the handheld device to the position and recording an image of the field ground with the camera ; (e) processing the image in order to determine a property of the image; (f) determining a calibration value by means of the processing unit by using the sensor value and the property; (g) and determining and displaying and/or automatically adjusting an operating value of the combine harvester by means of the processing unit by using current sensor values and the calibration value, wherein the operating value is the operating parameter of the combine harvester that is adjustable during operation, or the displayed operating value represents a result of the operation of the combine harvester and can be used by the operator to adjust the operating parameter. (a) driving the combine harvester over a field at an at least approximately constant speed and/or constant throughput, at least until a processing procedure of the combine harvester has stabilized; (b) acquiring and storing in a processing unit data with regard to at least one sensor value for a parameter of the processing procedure in the combine harvester and the associated position of the combine harvester ; (c) transmitting the data with regard to the position to a handheld device equipped with a camera and a position determining device ; (d) moving the handheld device to the position and recording an image of the field ground with the camera ; (e) processing the image in order to determine a property of the image; (f) determining a calibration value by means of the processing unit by using the sensor value and the property; (g) and determining and displaying and/or automatically adjusting an operating value of the combine harvester by means of the processing unit by using current sensor values and the calibration value, wherein the operating value is the operating parameter of the combine harvester that is adjustable during operation, or the displayed operating value represents a result of the operation of the combine harvester and can be used by the operator to adjust the operating parameter.
An indoor unit of an air conditioner, comprising: a casing installable in a ceiling (U) of an air-conditioning target space (R), the casing being provided with outlet ports capable of blowing out conditioned air in a plurality of blowing directions different from one another, the indoor unit is provided with an operation control section to carry out, in a heating operation, an airflow rate adjusting operation in which a reduced amount of the conditioned air is blown in one or more of the plurality of blowing directions to increase a blowing speed in the rest of the blowing directions, and characterized in that : to carry out the airflow rate adjusting operation, the operation control section is configured to control flow of the conditioned air such that the conditioned air is blown out in a horizontal blow mode in the blowing direction in which the blowing speed is increased by the airflow rate adjusting operation, and periodically change the blowing direction in which a reduced amount of the conditioned air is blown. a casing installable in a ceiling (U) of an air-conditioning target space (R), the casing being provided with outlet ports capable of blowing out conditioned air in a plurality of blowing directions different from one another, the indoor unit is provided with an operation control section to carry out, in a heating operation, an airflow rate adjusting operation in which a reduced amount of the conditioned air is blown in one or more of the plurality of blowing directions to increase a blowing speed in the rest of the blowing directions, and characterized in that : to carry out the airflow rate adjusting operation, the operation control section is configured to control flow of the conditioned air such that the conditioned air is blown out in a horizontal blow mode in the blowing direction in which the blowing speed is increased by the airflow rate adjusting operation, and periodically change the blowing direction in which a reduced amount of the conditioned air is blown.
Protective conductor monitoring device (100; 300) for detecting a protective conductor fault of an electrical line , comprising - a first connection point for connection to a protective conductor of the electrical line , - a detection circuit having a first input for applying a measurement potential (MP) and a second input for applying a comparison potential (VP), wherein - the protective conductor monitoring device (100; 300) is configured to adopt a checking mode in which the first input is electrically connected to the first connection point and the measurement potential (MP) applied to the first input is determined by the electrical potential (AP) of the first connection point , and - the protective conductor monitoring device (100; 300) is further configured to detect, using the detection circuit , the protective conductor fault in the checking mode on the basis of the measurement potential (MP) and the comparison potential (VP) and to provide a detection signal (DS) in accordance with the detected protective conductor fault, characterized in that the protective conductor monitoring device (100; 300) is further configured to change to a function test mode and, in the function test mode, to change the potential present at the first input to a function test potential (STP) and, using the detection circuit , to carry out a function test of the protective conductor monitoring device (100; 300) on the basis of the function test potential (STP) and the comparison potential (VP). - a first connection point for connection to a protective conductor of the electrical line , - a detection circuit having a first input for applying a measurement potential (MP) and a second input for applying a comparison potential (VP), wherein - the protective conductor monitoring device (100; 300) is configured to adopt a checking mode in which the first input is electrically connected to the first connection point and the measurement potential (MP) applied to the first input is determined by the electrical potential (AP) of the first connection point , and - the protective conductor monitoring device (100; 300) is further configured to detect, using the detection circuit , the protective conductor fault in the checking mode on the basis of the measurement potential (MP) and the comparison potential (VP) and to provide a detection signal (DS) in accordance with the detected protective conductor fault,
A cleaning article for cleaning a target surface, said cleaning article comprising: a cleaning strip element comprising a plurality of strips , each strip extending from a respective proximal end to a respective distal end remote therefrom, said cleaning strip element having a first surface and a second surface opposed thereto, and a tow fiber bundle joined to said first surface of said cleaning strip element , said tow fiber bundle being oriented generally transverse to said strips , wherein the cleaning strip element comprises a serpentine folded member with the width decreasing as the distal edge of the cleaning strip element is approached, wherein the cleaning strip element includes a plurality of layers having plural widths. a cleaning strip element comprising a plurality of strips , each strip extending from a respective proximal end to a respective distal end remote therefrom, said cleaning strip element having a first surface and a second surface opposed thereto, and a tow fiber bundle joined to said first surface of said cleaning strip element , said tow fiber bundle being oriented generally transverse to said strips , wherein the cleaning strip element comprises a serpentine folded member with the width decreasing as the distal edge of the cleaning strip element is approached, wherein the cleaning strip element includes a plurality of layers having plural widths.
Li-rich transition metal oxides material having general formula Li 1.2+x Mn 0.54 Ni 0.13 Co 0.13-x-y Al y O 2 ; where: 0.01 ≤ x ≤ 0.1 ; 0.01 ≤ y ≤ 0,1 ; and 0.03 ≤ x + y < 0.13 .
A tool for forming a dental restoration, the tool comprising: a first mold body configured to provide a customized fit with at least one tooth of a patient, and a second mold body configured to provide a customized fit with the at least one tooth of the patient, wherein the first mold body and second mold body are configured to combine with the at least one tooth of the patient to define a mold cavity encompassing at least a portion of a desired tooth structure of the tooth to be restored, the first mold body including a first clamp part and the second mold body including a second clamp part, wherein the first clamp part and second clamp part are configured to form a clamp at least proximate an incisal edge of the at least one tooth, wherein the first clamp part is configured to rotate about an axis of rotation and close seams, adjacent the at least one tooth, between the first and second mold bodies, wherein, when the first and second mold bodies combine with the at least one tooth of the patient to form the mold cavity, at least a portion of the first mold body is configured to abut a portion of the second mold body, wherein the portion of the first mold body includes an overbuilt portion, wherein at least one of the portion of the first mold body or the portion of the second mold body cooperate to define a gasket between the portion of the first mold body and the portion of the second mold body, wherein the gasket is configured to reduce or prevent the seepage of restorative material. a first mold body configured to provide a customized fit with at least one tooth of a patient, and a second mold body configured to provide a customized fit with the at least one tooth of the patient, wherein the first mold body and second mold body are configured to combine with the at least one tooth of the patient to define a mold cavity encompassing at least a portion of a desired tooth structure of the tooth to be restored, the first mold body including a first clamp part and the second mold body including a second clamp part, wherein the first clamp part and second clamp part are configured to form a clamp at least proximate an incisal edge of the at least one tooth, wherein the first clamp part is configured to rotate about an axis of rotation and close seams, adjacent the at least one tooth, between the first and second mold bodies, wherein, when the first and second mold bodies combine with the at least one tooth of the patient to form the mold cavity, at least a portion of the first mold body is configured to abut a portion of the second mold body, wherein the portion of the first mold body includes an overbuilt portion, wherein at least one of the portion of the first mold body or the portion of the second mold body cooperate to define a gasket between the portion of the first mold body and the portion of the second mold body, wherein the gasket is configured to reduce or prevent the seepage of restorative material.
A recombinant binding protein having a specific Src homology 3 (SH3) domain based binding affinity to a target molecule, said binding protein comprising a nephrocystin (NPHP1) derived SH3 domain, wherein a) at least one amino acid is substituted in the RT-loop of said SH3 domain or added to the RT-loop, and b) at least one amino acid is substituted in the n-src-loop of said SH3 domain or added to the n-src-loop, wherein said nephrocystin (NPHP1) derived SH3 domain has an amino acid sequence having at least 85% sequence identity to the amino acid sequence of SEQ ID NO:1 outside the RT-loop and n-src-loop, wherein said binding protein has a specific binding affinity to a target molecule of 10 -5 to 10 -12 M, wherein said RT loop corresponds to amino acid positions 8-17 of SEQ ID NO:1, and wherein said n-src-loop corresponds to amino acid positions 28-34 of SEQ ID NO:1. a) at least one amino acid is substituted in the RT-loop of said SH3 domain or added to the RT-loop, and b) at least one amino acid is substituted in the n-src-loop of said SH3 domain or added to the n-src-loop,
A speaker device comprising: an operation section configured to receive a user input operation; and a controller configured to control assignment of a process to the user input operation on a basis of whether or not the speaker device is stored in a charging case; wherein the process is executed if the user input operation is inputted to the operation section, and wherein the speaker device includes an earphone or a headphone. an operation section configured to receive a user input operation; and a controller configured to control assignment of a process to the user input operation on a basis of whether or not the speaker device is stored in a charging case; wherein the process is executed if the user input operation is inputted to the operation section, and wherein the speaker device includes an earphone or a headphone.
An electronic cigarette atomizing core, comprising an atomizing cotton , an installation seat of the atomizing cotton , and an ultrasonic atomizing sheet , wherein an atomizing cavity is formed in the middle of the installation seat; the ultrasonic atomizing sheet comprises an upper surface electrode connected to an outer electrode and a lower surface electrode connected to an inner electrode , and characterized in that a first groove and a second groove that are integrally communicated with each other are formed in an upper surface of the installation seat; an air outlet is formed at the top of the first groove and disposed correspondingly to an e-liquid outlet of an e-liquid tank device ; a first air inlet is formed at both an end of the first groove close to the atomizing cavity and an end of the second groove close to the atomizing cavity; the first groove is communicated with the second groove by means of the first air inlet thereof; the first air inlet of the second groove is communicated with the atomizing cavity; characterized in that the first air inlet of the first groove is smaller than the first air inlet of the second groove.
Suction arrangement for a centrifugal air filter, comprising a heat exchanger , an axial fan for generating a cooling airflow , as well as a venturi nozzle having a flow tube and an induction port which opens into a constriction region within the flow tube , wherein the flow tube in the outflow direction of the axial fan is penetrated by the cooling airflow in such a manner that a negative pressure (Δp) is caused in the induction port , characterized in that the cooling airflow is suctioned through the upstream heat exchanger , wherein the venturi nozzle is accommodated downstream of the axial fan as well as downstream of the heat exchanger .
A resin coated metal sheet comprising: resin coating layers on both sides of a metal sheet, wherein one of the resin coating layers that is positioned outside a container after forming is formed of a resin material whose difference between a heat quantity of crystallization and a heat quantity of fusion after being laminated to the metal sheet is within a range of 0 J/g or more and 20 J/g or less on a unit weight basis, wherein the heat quantity of crystallization and heat quantity of fusion are determined by removing the resin coating layer from the resin coated metal sheet with diluted hydrochloric acid, washing sufficiently with distilled water to dry; measuring an exothermic peak and an endothermic peak when the temperature of the resin coating layer is raised from - 50°C to 290°C at a rate of temperature rise of 10°C/min using a differential scanning calorimetry apparatus; calculating the heat quantity of crystallization from the area of the exothermic peak measured in a range of 100 to 200°C, and calculating the heat quantity of fusion from the area of the endothermic peak measured in a range of 200 to 280°C, and wherein the resin coated metal sheet is a resin coated steel sheet; and wherein the resin coating layers are formed of a resin material containing 90 mol% or more ethylene terephthalate unit, and a melting point of the resin coating layer positioned outside the container after forming is within a range of 240°C or more and 254°C or less. resin coating layers on both sides of a metal sheet, wherein one of the resin coating layers that is positioned outside a container after forming is formed of a resin material whose difference between a heat quantity of crystallization and a heat quantity of fusion after being laminated to the metal sheet is within a range of 0 J/g or more and 20 J/g or less on a unit weight basis, wherein the heat quantity of crystallization and heat quantity of fusion are determined by removing the resin coating layer from the resin coated metal sheet with diluted hydrochloric acid, washing sufficiently with distilled water to dry; measuring an exothermic peak and an endothermic peak when the temperature of the resin coating layer is raised from - 50°C to 290°C at a rate of temperature rise of 10°C/min using a differential scanning calorimetry apparatus; calculating the heat quantity of crystallization from the area of the exothermic peak measured in a range of 100 to 200°C, and calculating the heat quantity of fusion from the area of the endothermic peak measured in a range of 200 to 280°C, and wherein the resin coated metal sheet is a resin coated steel sheet; and wherein the resin coating layers are formed of a resin material containing 90 mol% or more ethylene terephthalate unit, and a melting point of the resin coating layer positioned outside the container after forming is within a range of 240°C or more and 254°C or less.