mhurhangee/patent-ind-claim-en huggingface dataset:
A manufacturing method for a solar battery cell, comprising: forming and laminating a second conductive-type layer and an antireflection film on a first conductive-type semiconductor substrate; applying a conductive paste containing a conductive particle and a glass frit to a predetermined position of the antireflection film; firing the semiconductor substrate with the conductive paste applied thereto; and forming an electrode penetrating the antireflection film and electrically connected to the second conductive-type layer, wherein the semiconductor substrate with the conductive paste applied thereto is consecutively subjected to heat treatment at a heating temperature just after the firing instead of being returned to room temperature, wherein the heating temperature is 300°C or more and 500°C or less when the semiconductor substrate with the conductive paste applied thereto is consecutively subjected to the heat treatment just after the firing instead of being returned to room temperature , and wherein heating time is one second or more and 60 seconds or less when the semiconductor substrate with the conductive paste applied thereto is consecutively subjected to the heat treatment just after the firing instead of being returned to room temperature. forming and laminating a second conductive-type layer and an antireflection film on a first conductive-type semiconductor substrate; applying a conductive paste containing a conductive particle and a glass frit to a predetermined position of the antireflection film; firing the semiconductor substrate with the conductive paste applied thereto; and forming an electrode penetrating the antireflection film and electrically connected to the second conductive-type layer, wherein the semiconductor substrate with the conductive paste applied thereto is consecutively subjected to heat treatment at a heating temperature just after the firing instead of being returned to room temperature, wherein the heating temperature is 300°C or more and 500°C or less when the semiconductor substrate with the conductive paste applied thereto is consecutively subjected to the heat treatment just after the firing instead of being returned to room temperature , and wherein heating time is one second or more and 60 seconds or less when the semiconductor substrate with the conductive paste applied thereto is consecutively subjected to the heat treatment just after the firing instead of being returned to room temperature.
A pet food composition, comprising: greater than 33 wt% fat; a protein source; less than 7 wt% carbohydrates; and greater than 10 wt% fiber; wherein (0.9 F + 0.46 P) / (0.1 F + 0.58 P + C) is 1.5 or greater, wherein F, P, and C, are wt% of fat, protein, and carbohydrates, respectively. greater than 33 wt% fat; a protein source; less than 7 wt% carbohydrates; and greater than 10 wt% fiber; wherein (0.9 F + 0.46 P) / (0.1 F + 0.58 P + C) is 1.5 or greater, wherein F, P, and C, are wt% of fat, protein, and carbohydrates, respectively.
A method of removing immunogenic antigens from an intact tissue, comprising: a) contacting the intact tissue with one or more actin depolymerization agents, and/or one or more microtubule depolymerization or microtubule destabilizing agents; b) solubilizing water-soluble antigens in the tissue, wherein the water-soluble antigens are solubilized in a first solution comprising a first buffering agent, a reducing agent, a protease inhibitor, and one or more metal halide salts, wherein the first solution does not comprise an amphiphile; c) separating the tissue from the solubilized water-soluble antigens; d) solubilizing lipid-soluble antigens in the tissue, wherein the lipid-soluble antigens are solubilized in a second solution comprising a second buffering agent, a reducing agent, a protease inhibitor, one or more salts suitable for maintaining protein solubility and an amphiphile; and e) separating the tissue from the solubilized lipid-soluble antigens; thereby removing immunogenic antigens from the tissue, wherein the method yields a substantially intact extracellular matrix (ECM) compatible with viable cell repopulation. a) contacting the intact tissue with one or more actin depolymerization agents, and/or one or more microtubule depolymerization or microtubule destabilizing agents; b) solubilizing water-soluble antigens in the tissue, wherein the water-soluble antigens are solubilized in a first solution comprising a first buffering agent, a reducing agent, a protease inhibitor, and one or more metal halide salts, wherein the first solution does not comprise an amphiphile; c) separating the tissue from the solubilized water-soluble antigens; d) solubilizing lipid-soluble antigens in the tissue, wherein the lipid-soluble antigens are solubilized in a second solution comprising a second buffering agent, a reducing agent, a protease inhibitor, one or more salts suitable for maintaining protein solubility and an amphiphile; and e) separating the tissue from the solubilized lipid-soluble antigens; thereby removing immunogenic antigens from the tissue, wherein the method yields a substantially intact extracellular matrix (ECM) compatible with viable cell repopulation.
A control device (100, 100-1, 100-2, 100-3) comprising: a processing unit configured to cyclically perform a control operation with a predetermined execution cycle, wherein the control operation includes collection of input data from a field device , calculation of output data based on the input data in accordance with a predetermined user program , and output of the calculated output data, wherein the control device (100, 100-1, 100-2, 100-3) is a programmable logic controller; characterized by a database (180, 180-1, 180-2, 180-3) disposed in a storage of the control device (100, 100-1, 100-2, 100-3) and configured to store designated data from data managed by the processing unit in a time series, wherein the data managed by the processing unit comprises values measured by the field device ; and a data writing means configured to perform writing of the designated data to the database (180, 180-1, 180-2, 180-3) at the same cycle as the execution cycle with which the control operation is cyclically performed, wherein the control operation which is cyclically performed by the processing unit includes a process of issuing a data writing request to the database (180, 180-1, 180-2, 180-3), wherein, in the control operation, when the data writing request is issued by the processing unit , a next process is continuously performed by the processing unit without waiting for completion of the data writing. a processing unit configured to cyclically perform a control operation with a predetermined execution cycle, wherein the control operation includes collection of input data from a field device , calculation of output data based on the input data in accordance with a predetermined user program , and output of the calculated output data, wherein the control device (100, 100-1, 100-2, 100-3) is a programmable logic controller; characterized by a database (180, 180-1, 180-2, 180-3) disposed in a storage of the control device (100, 100-1, 100-2, 100-3) and configured to store designated data from data managed by the processing unit in a time series, wherein the data managed by the processing unit comprises values measured by the field device ; and a data writing means configured to perform writing of the designated data to the database (180, 180-1, 180-2, 180-3) at the same cycle as the execution cycle with which the control operation is cyclically performed, wherein the control operation which is cyclically performed by the processing unit includes a process of issuing a data writing request to the database (180, 180-1, 180-2, 180-3), wherein, in the control operation, when the data writing request is issued by the processing unit , a next process is continuously performed by the processing unit without waiting for completion of the data writing.
An identification method for identifying a resonance of a power grid where a grid-connected unit is connected, the method includes, measuring an electrical quantity at a point of common coupling, calculating an envelope of a waveform of the electrical quantity, detecting an occurrence of the resonance based on the envelope, characterized in that the envelope is calculated based on a waveform superimposed to a fundamental component of the electrical quantity, wherein the superimposed waveform is calculated by taking off the fundamental component of the electrical quantity from the electrical quantity.
Fire protection housing, in particular fire protection cabinet, having a body which has at least one body wall and a plurality of body elements (3.1, 3.2 or 4.1, 4.2 or 5.1, 5.2) which can be plugged together via tongue-and-groove connections , which body elements (3.1, 3.2 or 4.1, 4.2 or 5.1, 5.2) each comprise a plate composite consisting of a plurality of interconnected plates (9.1, 9.2, 9.3), wherein the body wall comprises at least one first and one second body element (3.1, 3.2 or 4.1, 4.2 or 5.1, 5.2), which are arranged one above the other and can be plugged together via the tongue-and-groove connection , wherein, of this tongue-and-groove connection , a first groove wall (6.1 or 7.1 or 8.1) of the first body element (3.1 or 4.1 or 5.1) has in sections a projection and a second groove wall (6.2 or 7.2 or 8.2) of the second body element (3.2 or 4.2 or 5.2) has a set-back portion complementary thereto, characterized in that the plate composite has at least three plates (9.1, 9.2, 9.3), wherein the groove and/or the tongue of the tongue-and-groove connection is/are formed by an offset of at least one plate (9.2) in the plate composite .
An autonomous vehicle , comprising at least one camera (110, 111, or 112) configured to produce images (141, 142, 143, or 144) for computer vision used to control the autonomous vehicle , wherein - the at least one camera (110, 111, 112, or 113) has a variable and movable pitch to the direction of travel that is configured to be controlled, and - at least one image (141, 142, 143, or 144) from the variable pitch camera (110, 111, 112, or 113) is configured to be used in controlling the movement of the autonomous vehicle , characterized in that - the pitch of the variable pitch camera (110, 111, 112, or 113) is configured to be changed to maximise camera image clarity and/or resolution as the autonomous vehicle moves, wherein the pitch of the variable pitch camera (110, 111, 112, or 113) is controlled based on a speed of the autonomous vehicle . - the at least one camera (110, 111, 112, or 113) has a variable and movable pitch to the direction of travel that is configured to be controlled, and - at least one image (141, 142, 143, or 144) from the variable pitch camera (110, 111, 112, or 113) is configured to be used in controlling the movement of the autonomous vehicle , characterized in that - the pitch of the variable pitch camera (110, 111, 112, or 113) is configured to be changed to maximise camera image clarity and/or resolution as the autonomous vehicle moves, wherein the pitch of the variable pitch camera (110, 111, 112, or 113) is controlled based on a speed of the autonomous vehicle .
Forceps instrument for treating biological tissue, with a first branch which is held on a base and extends away from this, with a second branch which is held on the base so as to be pivotable about a pivot axis , wherein for pivotable mounting of the second branch , a bearing structure is provided which has two bearing elements which are arranged coaxially to one another and together form a split bearing journal, characterised in that the bearing structure is formed from a bearing insert which consists of plastic and is connected to the base . with a first branch which is held on a base and extends away from this, with a second branch which is held on the base so as to be pivotable about a pivot axis , wherein for pivotable mounting of the second branch , a bearing structure is provided which has two bearing elements which are arranged coaxially to one another and together form a split bearing journal, characterised in that the bearing structure is formed from a bearing insert which consists of plastic and is connected to the base .
A combustor for a gas turbine engine comprising: a support shell ; a forward liner panel mounted to the support shell via a multiple of studs , the forward liner panel including an aft non-linear circumferential edge ; and an aft liner panel mounted to the support shell via a multiple of studs , the aft liner panel including a forward non-linear circumferential edge , wherein the combustor comprises cavities between the support shell and each of the forward and aft liner panels , wherein the support shell comprises impingement passages configured to allow cooling air to enter the cavities and to provide impingement cooling of a cold side of the forward and aft liner panels , characterised in that : the forward non-linear circumferential edge of the aft liner panel is complementary to the aft non-linear circumferential edge of the forward liner panel ; the forward non-linear circumferential edge and the aft non-linear circumferential edge form a non-linear interface ; and the forward and aft liner panels each comprise effusion passages configured to allow the cooling air to pass from the cavities to a hot side of the respective forward and aft liner panels . a support shell ; a forward liner panel mounted to the support shell via a multiple of studs , the forward liner panel including an aft non-linear circumferential edge ; and an aft liner panel mounted to the support shell via a multiple of studs , the aft liner panel including a forward non-linear circumferential edge , wherein the combustor comprises cavities between the support shell and each of the forward and aft liner panels , wherein the support shell comprises impingement passages configured to allow cooling air to enter the cavities and to provide impingement cooling of a cold side of the forward and aft liner panels , characterised in that : the forward non-linear circumferential edge of the aft liner panel is complementary to the aft non-linear circumferential edge of the forward liner panel ; the forward non-linear circumferential edge and the aft non-linear circumferential edge form a non-linear interface ; and the forward and aft liner panels each comprise effusion passages configured to allow the cooling air to pass from the cavities to a hot side of the respective forward and aft liner panels . the forward non-linear circumferential edge of the aft liner panel is complementary to the aft non-linear circumferential edge of the forward liner panel ; the forward non-linear circumferential edge and the aft non-linear circumferential edge form a non-linear interface ; and the forward and aft liner panels each comprise effusion passages configured to allow the cooling air to pass from the cavities to a hot side of the respective forward and aft liner panels .
A method for prolonging plasma retention of an antibody or for reducing immunogenicity of an antibody, wherein said antibody is a human IgG antibody that comprises an antigen-binding domain whose antigen-binding activity varies depending on ion concentration and an Fc region that has increased human FcRn-binding activity at pH 7.4 as compared to the wild-type human IgG antibody, wherein the ion concentration is (i) hydrogen ion concentration (pH), wherein the ratio of the KD value for antigen binding of the antibody at an acidic pH to the KD value of antigen binding of the antibody at a neutral pH determined as KD (pH 5.8)/KD (pH7.4) is 2 or more; or (ii) calcium ion concentration, wherein the ratio of the KD value for antigen binding of the antibody at low calcium ion concentration to the KD value of antigen binding of the antibody at high calcium ion concentration determined as KD (3 μM Ca)/KD (2 mM Ca) is 2 or more, which method comprises the modification of said Fc region into one that does not form a hetero complex comprising two molecules of FcRn and one molecule of activating Fcγ receptor at pH 7.4 by modifying said Fc region into one whose binding activity to an activating Fcγ receptor is lower than the binding activity of an Fc region of the wild-type human IgG to the activating Fcγ receptor, wherein binding activity refers to the KD. (i) hydrogen ion concentration (pH), wherein the ratio of the KD value for antigen binding of the antibody at an acidic pH to the KD value of antigen binding of the antibody at a neutral pH determined as KD (pH 5.8)/KD (pH7.4) is 2 or more; or (ii) calcium ion concentration, wherein the ratio of the KD value for antigen binding of the antibody at low calcium ion concentration to the KD value of antigen binding of the antibody at high calcium ion concentration determined as KD (3 μM Ca)/KD (2 mM Ca) is 2 or more,
A method of analyzing protein variants of a recombinant protein of interest in liquid samples of a mammal comprising a) providing two or more liquid samples of a mammal comprising the recombinant protein of interest; b) immobilizing the recombinant protein of interest of each of said samples on a separate solid support coupled to an affinity ligand specific for the recombinant protein of interest in the samples; c) eluting the recombinant protein of interest or a fragment thereof of each of said samples from the solid support into separate eluates; and d) analyzing the protein variants of step c) of each of said samples separately using an analytical separating method and comparing said two or more samples, wherein an internal standard binding to the same affinity ligand is added to each of said samples prior to step b and the internal standard is analyzed together with the recombinant protein of interest of step d), and wherein the protein variants of the recombinant protein of interest to be analyzed are due to deamidation, oxidation, N-terminal heterogeneity, C-terminal heterogeneity, isomerization, or disulfide isoforms. a) providing two or more liquid samples of a mammal comprising the recombinant protein of interest; b) immobilizing the recombinant protein of interest of each of said samples on a separate solid support coupled to an affinity ligand specific for the recombinant protein of interest in the samples; c) eluting the recombinant protein of interest or a fragment thereof of each of said samples from the solid support into separate eluates; and d) analyzing the protein variants of step c) of each of said samples separately using an analytical separating method and comparing said two or more samples,
A press brake equipped with a front plate and a back plate on a front and a back of a lower table that is attached to a lower side of left and right side frames in the press brake , and equipped with an upper table provided with an upper mold for carrying out a bending processing on a plate shaped workpiece in cooperation with a lower mold provided with this lower table , to be freely movable up or down on an upper side of said left and right side frames , the press brake comprises left and right eccentric shafts for performing the crowning of said lower table , wherein the eccentric shafts are provided to be freely rotatable on said lower table , and a force-increasing mechanism for transmitting an output of an actuator to said each eccentric shaft with a force increased is provided between the actuator for rotating said eccentric shafts and said each eccentric shaft , the press brake is characterized in that said force-increasing mechanism is configured with a toggle mechanism .
A method at a user equipment comprising: detecting that a circuit switched "CS" call has been requested at the user equipment; determining if a most recent registration attempt or registration update attempt with a network of a first radio access technology "RAT" resulted in an abnormal state; registering with a network of a second RAT when the abnormal state is detected even if the tracking area code or location area code of a last successful network registration matches the tracking area code or location area code in a broadcast message from the network of the second RAT; and initiating the CS call with the network of the second RAT . detecting that a circuit switched "CS" call has been requested at the user equipment; determining if a most recent registration attempt or registration update attempt with a network of a first radio access technology "RAT" resulted in an abnormal state; registering with a network of a second RAT when the abnormal state is detected even if the tracking area code or location area code of a last successful network registration matches the tracking area code or location area code in a broadcast message from the network of the second RAT; and initiating the CS call with the network of the second RAT .
A method for sealing a water-soluble film, the method comprising: (a) applying a sealing solution to a first surface of a water-soluble film, the sealing solution comprising (i) water at a concentration of 85 wt.% to 98 wt.% relative to the total sealing solution, and (ii) a polyol having 3 to 12 hydroxyl groups, wherein the polyol is present in the sealing solution at a concentration of from 2 wt.% to 15 wt.% relative to the total sealing solution, wherein the sealing solution has a dynamic viscosity (μ s ) less than 1.5 mPa·s (1.5 cP) as measured at 20°C; and (b) contacting a second surface of a water-soluble film with the sealing solution on the first surface for a time sufficient to form a seal between the first surface and the second surface. (a) applying a sealing solution to a first surface of a water-soluble film, the sealing solution comprising (i) water at a concentration of 85 wt.% to 98 wt.% relative to the total sealing solution, and (ii) a polyol having 3 to 12 hydroxyl groups, wherein the polyol is present in the sealing solution at a concentration of from 2 wt.% to 15 wt.% relative to the total sealing solution, wherein the sealing solution has a dynamic viscosity (μ s ) less than 1.5 mPa·s (1.5 cP) as measured at 20°C; and (i) water at a concentration of 85 wt.% to 98 wt.% relative to the total sealing solution, and (ii) a polyol having 3 to 12 hydroxyl groups, wherein the polyol is present in the sealing solution at a concentration of from 2 wt.% to 15 wt.% relative to the total sealing solution, (b) contacting a second surface of a water-soluble film with the sealing solution on the first surface for a time sufficient to form a seal between the first surface and the second surface.