mhurhangee/patent-ind-claim-en huggingface dataset:
A patient specific therapeutic composition provided in a single dose container for use in therapy for administration to a patient, the composition comprising: a monoclonal antibody comprising a labeled fraction comprising a radiolabel, and an unlabeled fraction; and a pharmaceutically acceptable carrier, wherein each of a radiation dose of the radiolabel in the labeled fraction of the monoclonal antibody and a total protein amount of the monoclonal antibody depend on at least one patient specific parameter including a patient weight, wherein a total volume of the patient specific therapeutic composition is wholly administered to the patient in one treatment session, wherein the monoclonal antibody is BC8, which binds to the CD45 antigen, wherein the radiolabel is Iodine 131, wherein the composition is administered intravenously, intramuscularly, or subcutaneously to the patient, wherein a radiation dose is a therapeutic dose of between 100 milliCuries and 1200 milliCuries, and wherein the total protein amount is 0.5 mg/kg patient weight.
An image processing apparatus comprising: obtaining means for obtaining a luminance of each pixel of an input image having a color reproduction range wider than that of a printing apparatus ; conversion means for performing, for the input image, conversion processing of obtaining, for each pixel, a color value included in the color reproduction range of the printing apparatus and obtaining the luminance of each pixel of the image after the conversion; correction means for correcting the luminance of each pixel of the input image; and extraction means for extracting spatial frequency components of the luminance of each pixel of an image, wherein the extraction means extracts, for each pixel of the image, a first high-frequency component from the luminance obtained by the obtaining means and a second high-frequency component from the luminance obtained by the conversion processing, wherein the correction means performs correction of the luminance of each pixel of the input image based on the first high-frequency component and the second high-frequency component of the respective pixel, such that an intensity of the correction of the luminance based on the first high-frequency component and the second high-frequency component becomes higher for a color that is not included in the color reproduction range of the printing apparatus than for a color included in the color reproduction range of the printing apparatus. obtaining means for obtaining a luminance of each pixel of an input image having a color reproduction range wider than that of a printing apparatus ; conversion means for performing, for the input image, conversion processing of obtaining, for each pixel, a color value included in the color reproduction range of the printing apparatus and obtaining the luminance of each pixel of the image after the conversion; correction means for correcting the luminance of each pixel of the input image; and extraction means for extracting spatial frequency components of the luminance of each pixel of an image, wherein the extraction means extracts, for each pixel of the image, a first high-frequency component from the luminance obtained by the obtaining means and a second high-frequency component from the luminance obtained by the conversion processing, wherein the correction means performs correction of the luminance of each pixel of the input image based on the first high-frequency component and the second high-frequency component of the respective pixel, such that an intensity of the correction of the luminance based on the first high-frequency component and the second high-frequency component becomes higher for a color that is not included in the color reproduction range of the printing apparatus than for a color included in the color reproduction range of the printing apparatus.
A wireless optical communication method, wherein the method is applied to a first device, and the method comprises: receiving a data frame sent by a second device; obtaining coded symbols, lengths of source symbols, a quantity of source symbols, degree information of the source symbols, and index information of the source symbols based on the data frame, wherein the degree information of the source symbols indicates a quantity of source symbols comprised in each source symbol group that participates in coding processing, and the index information of the source symbols indicates indexes of the source symbols comprised in each source symbol group that participates in coding processing; determining a mapping relationship between the source symbols and the coded symbols based on the lengths of the source symbols, the quantity of source symbols, the degree information of the source symbols, and the index information of the source symbols; and determining the source symbols based on the mapping relationship, the coded symbols, and a preset rateless decoding algorithm. receiving a data frame sent by a second device; obtaining coded symbols, lengths of source symbols, a quantity of source symbols, degree information of the source symbols, and index information of the source symbols based on the data frame, wherein the degree information of the source symbols indicates a quantity of source symbols comprised in each source symbol group that participates in coding processing, and the index information of the source symbols indicates indexes of the source symbols comprised in each source symbol group that participates in coding processing; determining a mapping relationship between the source symbols and the coded symbols based on the lengths of the source symbols, the quantity of source symbols, the degree information of the source symbols, and the index information of the source symbols; and determining the source symbols based on the mapping relationship, the coded symbols, and a preset rateless decoding algorithm.
A fiber optic connector , comprising: a housing comprising a rear end and a front end with a longitudinal passageway extending from the rear end to the front end , wherein a rear portion (RP) of the housing comprises a round cross-section (RCS) and front portion (FP) of the housing comprises a non-round cross-section (NRCS) with a transition region (TR) disposed between the rear portion (RP) and the front portion (FP), wherein the transition region (TR) comprises an asymmetric portion (AT); a ferrule holder ; and a ferrule comprising a fiber bore extending from a rear end to a front end , wherein the ferrule is disposed within a portion of the ferrule holder ; characterized in that the rear portion (RP) comprises a keying portion configured as a female key; and the keying portion extends into the transition region (TR). a housing comprising a rear end and a front end with a longitudinal passageway extending from the rear end to the front end , wherein a rear portion (RP) of the housing comprises a round cross-section (RCS) and front portion (FP) of the housing comprises a non-round cross-section (NRCS) with a transition region (TR) disposed between the rear portion (RP) and the front portion (FP), wherein the transition region (TR) comprises an asymmetric portion (AT); a ferrule holder ; and a ferrule comprising a fiber bore extending from a rear end to a front end , wherein the ferrule is disposed within a portion of the ferrule holder ;
A razor cartridge , comprising: main blades ; a trimmer blade ; a housing accommodating the main blades so as for cutting edges of the main blades to be exposed at the front of the housing and accommodating the trimmer blade so as for a cutting edge of the trimmer blade to be exposed at the rear of the housing ; the razor cartridge being characterized by a trimmer cover provided at the rear of the housing to be slidable along a rear surface of the housing and to move back and forth between a first position and a second position. main blades ; a trimmer blade ; a housing accommodating the main blades so as for cutting edges of the main blades to be exposed at the front of the housing and accommodating the trimmer blade so as for a cutting edge of the trimmer blade to be exposed at the rear of the housing ; the razor cartridge being characterized by a trimmer cover provided at the rear of the housing to be slidable along a rear surface of the housing and to move back and forth between a first position and a second position.
A hybrid thermal and energy curable ink or coating composition comprising: a) one or more polyamideimideresins in an amount of 2 wt% to 20 wt%; b) one or more nitrogen containing ethylenically unsaturated monomers in an amount of 5 wt% to 70 wt%; and c) one or more aprotic solvents. a) one or more polyamideimideresins in an amount of 2 wt% to 20 wt%; b) one or more nitrogen containing ethylenically unsaturated monomers in an amount of 5 wt% to 70 wt%; and c) one or more aprotic solvents.
A three-dimensional structure manufacturing method comprising: forming an orientation film (3, 31-33); forming a layer (2, 21-25) containing at least one type of chemical substance; and orienting molecules of the at least one type of chemical substance, wherein: the forming the orientation film (3, 31-33), the forming the layer (2, 21-25), and the orienting the molecules are repeated a plurality of times; and characterized in that the at least one type of chemical substance contains molecules each having a chiral molecular skeleton. forming an orientation film (3, 31-33); forming a layer (2, 21-25) containing at least one type of chemical substance; and orienting molecules of the at least one type of chemical substance, wherein: the forming the orientation film (3, 31-33), the forming the layer (2, 21-25), and the orienting the molecules are repeated a plurality of times; and characterized in that the at least one type of chemical substance contains molecules each having a chiral molecular skeleton. the forming the orientation film (3, 31-33), the forming the layer (2, 21-25), and the orienting the molecules are repeated a plurality of times; and characterized in that the at least one type of chemical substance contains molecules each having a chiral molecular skeleton.
A cell thawing method comprising a step of thawing a cell suspension consisting of a freezing medium and of cells, followed by a step of removing said freezing medium by filtration, said step of removing the freezing medium being carried out without prior or simultaneous provision of medium, said method comprising the following steps: (i) placing a container, containing a frozen cell suspension in a device equipped with a filter, at a temperature which allows the cell suspension to thaw; (ii) applying to the cell suspension a force which drives the passing of the freezing medium through the filter; (iii) resuspending the cells in a solution. (i) placing a container, containing a frozen cell suspension in a device equipped with a filter, at a temperature which allows the cell suspension to thaw; (ii) applying to the cell suspension a force which drives the passing of the freezing medium through the filter; (iii) resuspending the cells in a solution.
A method for controlling a laundry dryer, the method comprising: an operation of, when a dusting mode is selected and a start command is input, rotating a drying drum at a first rotational speed (V1) in a first direction for a first set time; an operation of, after the first set time elapses, rotating the drying drum at a second rotational speed (V2) in a second direction opposite to the first direction for a second set time; and an operation of rotating a drying fan along with the drying drum, when the drying drum rotates in the second direction, dust staining on an object introduced into the drying drum is separated from the object, and when the drying drum rotates in the first direction, the separated dust is discharged to the outside of the drying drum by a forced air flow generated by the drying fan, characterized in that the first rotational speed (V1) is a rotational speed which allows the object introduced into the drying drum to rotate as one body without being separated from an inner circumference surface of the drying drum; the second rotational speed (V2) is a rotational speed which allows the object introduced into the drying drum to be raised while rotating along with the drying drum and then to be lowered to a floor of the drying drum around a highest point; and the first direction rotation and the second direction rotation of the drying drum are alternately performed for a third set time. an operation of, when a dusting mode is selected and a start command is input, rotating a drying drum at a first rotational speed (V1) in a first direction for a first set time; an operation of, after the first set time elapses, rotating the drying drum at a second rotational speed (V2) in a second direction opposite to the first direction for a second set time; and an operation of rotating a drying fan along with the drying drum, when the drying drum rotates in the second direction, dust staining on an object introduced into the drying drum is separated from the object, and when the drying drum rotates in the first direction, the separated dust is discharged to the outside of the drying drum by a forced air flow generated by the drying fan, characterized in that the first rotational speed (V1) is a rotational speed which allows the object introduced into the drying drum to rotate as one body without being separated from an inner circumference surface of the drying drum; the second rotational speed (V2) is a rotational speed which allows the object introduced into the drying drum to be raised while rotating along with the drying drum and then to be lowered to a floor of the drying drum around a highest point; and the first direction rotation and the second direction rotation of the drying drum are alternately performed for a third set time.
A positive electrode for a solid-state secondary battery, the positive electrode comprising: a positive active material; and a first solid electrolyte, wherein a ratio λ of an average particle diameter of the positive active material to an average particle diameter of the first solid electrolyte satisfies Equation 1, wherein an average particle diameter of the positive active material is in a range of 5 μm to 12 μm, and an average particle diameter of the first solid electrolyte is in a range of 1.5 μm to 4 μm, wherein an amount of the positive active material is in a range of 70 wt% to 95 wt% based on a total weight of the positive electrode: 3 ≤ λ ≤ 40 . a positive active material; and a first solid electrolyte, wherein a ratio λ of an average particle diameter of the positive active material to an average particle diameter of the first solid electrolyte satisfies Equation 1, wherein an average particle diameter of the positive active material is in a range of 5 μm to 12 μm, and an average particle diameter of the first solid electrolyte is in a range of 1.5 μm to 4 μm, wherein an amount of the positive active material is in a range of 70 wt% to 95 wt% based on a total weight of the positive electrode: 3 ≤ λ ≤ 40 .
Hot beverage preparation device , in particular fully automatic coffee maker, - having a pump which has an electric pump motor and is embodied to pump a liquid in the hot beverage preparation device ; - having a sensor which is embodied to measure an operating parameter (B) of the electric pump motor which makes it possible to provide a statement about the liquid flow produced by the pump ; - having a control facility which is coupled to the electric pump motor and the sensor and which is embodied to calculate the liquid flow on the basis of the detected operating parameter (B) and to control the electric pump motor on the basis of the calculated liquid flow ; and - having a power sensor as a sensor which is embodied to measure the electric power (PE) received by the electric pump motor by means of a PWM and a current measurement, or - having a speed sensor as a sensor which is embodied to detect the speed (n) of the electric pump motor on the basis of a PWM duty factor of a control voltage of the electric pump motor . - having a pump which has an electric pump motor and is embodied to pump a liquid in the hot beverage preparation device ; - having a sensor which is embodied to measure an operating parameter (B) of the electric pump motor which makes it possible to provide a statement about the liquid flow produced by the pump ; - having a control facility which is coupled to the electric pump motor and the sensor and which is embodied to calculate the liquid flow on the basis of the detected operating parameter (B) and to control the electric pump motor on the basis of the calculated liquid flow ; and - having a power sensor as a sensor which is embodied to measure the electric power (PE) received by the electric pump motor by means of a PWM and a current measurement, or - having a speed sensor as a sensor which is embodied to detect the speed (n) of the electric pump motor on the basis of a PWM duty factor of a control voltage of the electric pump motor .
A cam drive device for an image forming apparatus, the cam drive device comprising: a cam to rotate; a displacement body to be displaced in response to a change in a rotation position of the cam in contact with the displacement body ; a motor to rotate the cam ; and a power source to output an electric current to be supplied to the motor , the cam drive device being characterized in that it further includes a controller configured to control an excitation current to cause a stall torque to the motor being in a stop state, wherein the excitation current is changed in response to a change in a rotation stop position of the cam , wherein the cam is an eccentric cam, and the cam includes: a concentric curved portion (P 1 ,P 3 ) in which a curvature centered on an axis of the cam is constant; and a non-concentric curved portion (P 2 ) in which the curvature centered on the axis of the cam is not constant, wherein the controller is further configured to change the excitation current between a first rotation stop position of the cam and a second rotation stop position of the cam , the first rotation stop position at which the concentric curved portion (P 1 ,P 3 ) is in contact with the displacement body , the second rotation stop position at which the non-concentric curved portion (P 2 ) is in contact with the displacement body , the excitation current at the first rotation stop position of the cam is set smaller than the excitation current at the second rotation stop position of the cam . a cam to rotate; a displacement body to be displaced in response to a change in a rotation position of the cam in contact with the displacement body ; a motor to rotate the cam ; and a power source to output an electric current to be supplied to the motor , the cam drive device being characterized in that it further includes a controller configured to control an excitation current to cause a stall torque to the motor being in a stop state, wherein the excitation current is changed in response to a change in a rotation stop position of the cam , wherein the cam is an eccentric cam, and the cam includes: a concentric curved portion (P 1 ,P 3 ) in which a curvature centered on an axis of the cam is constant; and a non-concentric curved portion (P 2 ) in which the curvature centered on the axis of the cam is not constant, a concentric curved portion (P 1 ,P 3 ) in which a curvature centered on an axis of the cam is constant; and a non-concentric curved portion (P 2 ) in which the curvature centered on the axis of the cam is not constant, wherein the controller is further configured to change the excitation current between a first rotation stop position of the cam and a second rotation stop position of the cam , the first rotation stop position at which the concentric curved portion (P 1 ,P 3 ) is in contact with the displacement body , the second rotation stop position at which the non-concentric curved portion (P 2 ) is in contact with the displacement body , the excitation current at the first rotation stop position of the cam is set smaller than the excitation current at the second rotation stop position of the cam .
A method comprising: receiving, by one or more processors , user input requesting that the one or more processors activate an autonomous driving mode of a vehicle ; in response to receiving the request, using, by the one or more processors, protocol data to assess (i) the status of the vehicle's environment, (ii) the vehicle, and systems of the vehicle, and (iii) a driver of the vehicle; identifying a set of driving conditions from a plurality of driving conditions based on the assessments, wherein each of the plurality of driving conditions is associated with a task that may be performed by the driver to change the condition; generating, by the one or more processors, a set of tasks based on the set of driving conditions; displaying, by the one or more processors, to a user of the vehicle the set of tasks in an ordered sequence; and upon determining that all of the tasks of the set of tasks are completed, controlling, by the one or more processors, the vehicle to switch from a manual driving mode to the autonomous driving mode. receiving, by one or more processors , user input requesting that the one or more processors activate an autonomous driving mode of a vehicle ; in response to receiving the request, using, by the one or more processors, protocol data to assess (i) the status of the vehicle's environment, (ii) the vehicle, and systems of the vehicle, and (iii) a driver of the vehicle; identifying a set of driving conditions from a plurality of driving conditions based on the assessments, wherein each of the plurality of driving conditions is associated with a task that may be performed by the driver to change the condition; generating, by the one or more processors, a set of tasks based on the set of driving conditions; displaying, by the one or more processors, to a user of the vehicle the set of tasks in an ordered sequence; and upon determining that all of the tasks of the set of tasks are completed, controlling, by the one or more processors, the vehicle to switch from a manual driving mode to the autonomous driving mode.
A tracked amphibious vehicle having a vehicle frame and a pair of track assemblies attachable to a respective side of said vehicle frame , said vehicle frame being arranged to support a vehicle cab and an engine configuration , characterized in that in that said vehicle frame is arranged to receive said cab via hinge means so as to allow tilting of said cab about said hinge means between a closed position and an open position, said vehicle frame comprising a pair of separated longitudinal wall elements extending in the longitudinal direction of the tracked vehicle and a bottom element connecting said pair of longitudinal wall elements so as to form a space (S1) for supporting and housing said engine configuration , wherein said space (S1) becomes accessible when the cab is in said open position, wherein said vehicle frame further comprises an extension frame forming an extension in a substantially vertical direction, wherein said extension frame is wedge-shaped so that the extension frame has a decreasing vertical extension in direction from the rear portion to a front portion of the vehicle frame , said vehicle frame is configured to have a lateral extension on its respective side ending prior to or substantially at the level of the a respective track of the pair of track assemblies when assembled to the vehicle frame so that no portion of the vehicle frame extends laterally passed the respective track of said pair of track assemblies so as to allow easy access to said space (S1).
A kit for use in a method of protecting an organ of a human patient from injury based on a scheduled insult comprising a therapeutically effective amount of (i) iron sucrose, and (ii) one of Cr-protoporphyrin, Sn-protoporphyrin, or Zn-protoporphyrin.