mhurhangee/patent-ind-claim-en huggingface dataset:
A ranging method comprising: emitting, by a first laser emitting portion of a laser emitting device , a vertical laser beam rotating in a vertical plane at a first rotation speed ; calculating a time difference between the vertical laser beam passing through a first optical detection component and a second optical detection component by using the first optical detection component and the second optical detection component on a laser receiving device at least partially on the same vertical plane, wherein a distance between the two optical detection components is a first spacing ; calculating a first distance between the laser emitting device and the laser receiving device based on the first rotation speed, the first spacing, and the time difference ; characterized in that the ranging method further comprises: emitting, by a second laser emitting portion of the laser emitting device , a horizontal laser beam rotating in a horizontal plane at a second rotation speed; and adjusting, by a third optical detection component arranged vertically on the laser receiving device , the laser receiving device to be evenly divided by the horizontal laser beam . emitting, by a first laser emitting portion of a laser emitting device , a vertical laser beam rotating in a vertical plane at a first rotation speed ; calculating a time difference between the vertical laser beam passing through a first optical detection component and a second optical detection component by using the first optical detection component and the second optical detection component on a laser receiving device at least partially on the same vertical plane, wherein a distance between the two optical detection components is a first spacing ; calculating a first distance between the laser emitting device and the laser receiving device based on the first rotation speed, the first spacing, and the time difference ; characterized in that the ranging method further comprises: emitting, by a second laser emitting portion of the laser emitting device , a horizontal laser beam rotating in a horizontal plane at a second rotation speed; and adjusting, by a third optical detection component arranged vertically on the laser receiving device , the laser receiving device to be evenly divided by the horizontal laser beam . emitting, by a second laser emitting portion of the laser emitting device , a horizontal laser beam rotating in a horizontal plane at a second rotation speed; and adjusting, by a third optical detection component arranged vertically on the laser receiving device , the laser receiving device to be evenly divided by the horizontal laser beam .
A method of making a flexible plasma-based film comprising the steps of: (a) mixing blood plasma with one or two activators of the coagulation system selected from: more than 2.5 International Units (IU) of thrombin per milliliter (ml) of said plasma; and 0.65 to 1.3 mg of calcium ions per milliliter (ml) of said plasma, to induce clotting of said plasma, wherein said plasma is contained within a mold; and (b) maintaining said plasma in said mold for the time required for the plasma to clot and to form said film, wherein optionally during or at the end of said time a pressure is applied to said plasma in said mold. (a) mixing blood plasma with one or two activators of the coagulation system selected from: more than 2.5 International Units (IU) of thrombin per milliliter (ml) of said plasma; and 0.65 to 1.3 mg of calcium ions per milliliter (ml) of said plasma, to induce clotting of said plasma, wherein said plasma is contained within a mold; and (b) maintaining said plasma in said mold for the time required for the plasma to clot and to form said film, wherein optionally during or at the end of said time a pressure is applied to said plasma in said mold.
A thermal increase system comprising: a radio frequency, RF, signal source configured to supply an RF signal; an electrode coupled to the RF signal source; at least one variable impedance network that includes at least one variable passive component having at least one current variable component value, wherein the at least one variable impedance network is coupled between the RF signal source and the electrode; and characterised by a controller configured to determine an initial estimated mass of a load that is proximate to the electrode based at least on the at least one current variable component value of the at least one variable impedance network, to determine one or more desired signal parameters for the RF signal, including a desired RF power level, based on at least the estimated mass of the load, to control the RF signal source to supply an initial-mass-estimate-based RF signal with the one or more desired signal parameters, to determine a rate of change of a parameter of the RF signal source while the initial-mass-estimate-based RF signal is supplied, to determine a refined estimated mass of the load based on at least the rate of change of the parameter, to determine one or more refined signal parameters for the RF signal based on at least the refined estimated mass of the load, and to control the RF signal source to supply a refined-mass-estimate-based RF signal with the one or more refined signal parameters, wherein the parameter is selected from a group consisting of: an S11 parameter, a voltage standing wave ratio, and a reflected power of the RF signal. a radio frequency, RF, signal source configured to supply an RF signal; an electrode coupled to the RF signal source; at least one variable impedance network that includes at least one variable passive component having at least one current variable component value, wherein the at least one variable impedance network is coupled between the RF signal source and the electrode; and characterised by a controller configured to determine an initial estimated mass of a load that is proximate to the electrode based at least on the at least one current variable component value of the at least one variable impedance network, to determine one or more desired signal parameters for the RF signal, including a desired RF power level, based on at least the estimated mass of the load, to control the RF signal source to supply an initial-mass-estimate-based RF signal with the one or more desired signal parameters, to determine a rate of change of a parameter of the RF signal source while the initial-mass-estimate-based RF signal is supplied, to determine a refined estimated mass of the load based on at least the rate of change of the parameter, to determine one or more refined signal parameters for the RF signal based on at least the refined estimated mass of the load, and to control the RF signal source to supply a refined-mass-estimate-based RF signal with the one or more refined signal parameters, wherein the parameter is selected from a group consisting of: an S11 parameter, a voltage standing wave ratio, and a reflected power of the RF signal.
Stack storage assembly with a plurality of container receiving spaces and a charging space which is arranged below the container receiving spaces , wherein a frame arrangement is arranged between the container receiving spaces and the charging space , in which longitudinally extending sections are connected to one another by transversely extending sections, the frame arrangement has, for each container receiving space , an opening through which the container receiving space can be loaded, and characterized in that the frame arrangement has a plurality of modules which are connected to one another.
A high-strength steel plate having excellent burring properties in a low temperature range, the steel plate comprising, by wt%, carbon (C): 0.02 to 0.10%, silicon (Si): 0.01 to 0.30%, manganese (Mn): 1.0 to 1.7%, aluminum (Al): 0.01 to 0.10%, chromium (Cr): 0.005 to 0.2%, molybdenum (Mo): 0.005 to 0.3%, phosphorus (P): 0.001 to 0.05%, sulfur (S): 0.001 to 0.01%, nitrogen (N): 0.001 to 0.01%, niobium (Nb): 0.005 to 0.06%, titanium (Ti): 0.005 to 0.13%, vanadium (V): 0.005 to 0.2%, boron (B): 0.0003 to 0.002%, and a balance of iron (Fe) and inevitable impurities, [C] ∗ , expressed by Relational Expression 1, satisfies -0.015 to 0.015, Mn, Mo, Cr, and B satisfy Relational Expression 2, ⌈ C ⌉ * = ⌈ C ⌉ − ⌈ C ⌉ × A where A = (([Nb]/93) + ([Ti]/48) + ([V]/51) + ([Mo]/96)) / ([C]/12), and each alloying component denotes a content by wt%, ⌈ Mn ⌉ + 2.8 ⌈ Mo ⌉ + 1.5 ⌈ Cr ⌉ + 500 ⌈ B ⌉ ≤ 2.5 where each alloying component denotes a content by wt%, a microstructure comprises, by area fraction, 97% or more, including 100%, of a ferrite phase, the number of coarse complex precipitates, containing at least one of Ti, Nb, Mo, and V, each having a diameter of at least 10 μm, observed within a unit area of 1cm 2 , is 1×10 7 or less, and the number of austenitic phases constituting martensite-austenite phases, each having a diameter of 10 μm or more, observed on grain boundaries within a unit area of 1cm 2 , is 1×10 4 or less, wherein the steel plate has a tensile strength of 590 MPa or more, wherein a product of a hole expanding ratio (HER) and tensile strength (HER(%)xTS(MPa)) is 35000MPa·% or more at a temperature of -30°C, wherein the HER in a low-temperature range is performed based on JFST 1001-1996 standard. 0.005 to 0.13%, vanadium (V): 0.005 to 0.2%, boron (B): 0.0003 to 0.002%, and a balance of iron (Fe) and inevitable impurities, [C] ∗ , expressed by Relational Expression 1, satisfies -0.015 to 0.015, Mn, Mo, Cr, and B satisfy Relational Expression 2, ⌈ C ⌉ * = ⌈ C ⌉ − ⌈ C ⌉ × A where A = (([Nb]/93) + ([Ti]/48) + ([V]/51) + ([Mo]/96)) / ([C]/12), and each alloying component denotes a content by wt%, ⌈ Mn ⌉ + 2.8 ⌈ Mo ⌉ + 1.5 ⌈ Cr ⌉ + 500 ⌈ B ⌉ ≤ 2.5 where each alloying component denotes a content by wt%, a microstructure comprises, by area fraction, 97% or more, including 100%, of a ferrite phase, the number of coarse complex precipitates, containing at least one of Ti, Nb, Mo, and V, each having a diameter of at least 10 μm, observed within a unit area of 1cm 2 , is 1×10 7 or less, and the number of austenitic phases constituting martensite-austenite phases, each having a diameter of 10 μm or more, observed on grain boundaries within a unit area of 1cm 2 , is 1×10 4 or less, wherein the steel plate has a tensile strength of 590 MPa or more, wherein a product of a hole expanding ratio (HER) and tensile strength (HER(%)xTS(MPa)) is 35000MPa·% or more at a temperature of -30°C, wherein the HER in a low-temperature range is performed based on JFST 1001-1996 standard.
Connection system for an electric bicycle , comprising a plug-in connector and comprising a connection component ; a. the plug-in connector comprising a plurality of electrical plug-in contacts and a plug wall , which surrounds the plug-in contacts in the circumferential direction, and a locking element , which projects outward from the outer surface of the plug wall , in the form of a pin, the axis of which is oriented perpendicularly to the outer surface of the plug wall and the circumferential surface of which is designed to interact with a latching apparatus of a matching socket and to spread the latching apparatus when the plug-in connector is inserted into the socket, characterized in that the outer surface of the plug wall is provided with an encircling sealing element which is arranged in front of the locking element as seen in the insertion direction; and in that b. the connection component comprises a plug socket which matches the plug-in connector , wherein the plug socket has a socket wall which surrounds the electrical contacts in the circumferential direction and wherein an inner surface of the socket wall is designed to form a sealing termination with the sealing element of the plug-in connector . a. the plug-in connector comprising a plurality of electrical plug-in contacts and a plug wall , which surrounds the plug-in contacts in the circumferential direction, and a locking element , which projects outward from the outer surface of the plug wall , in the form of a pin, the axis of which is oriented perpendicularly to the outer surface of the plug wall and the circumferential surface of which is designed to interact with a latching apparatus of a matching socket and to spread the latching apparatus when the plug-in connector is inserted into the socket, characterized in that the outer surface of the plug wall is provided with an encircling sealing element which is arranged in front of the locking element as seen in the insertion direction; and in that b. the connection component comprises a plug socket which matches the plug-in connector , wherein the plug socket has a socket wall which surrounds the electrical contacts in the circumferential direction and wherein an inner surface of the socket wall is designed to form a sealing termination with the sealing element of the plug-in connector .
Device for the friction stir welding of workpieces of dissimilar thickness, in particular of tubular structures, said device having the following features: a) a drive head which by means of a receptacle head is guided by a guiding machine, and a holding bell for a welding shoe that by means of a fastening flange is screw-fitted to the drive head , form the drive and the guide for a welding pin tip ; b) the welding shoe has a circular structure which in the centre thereof has a circular opening for receiving the welding pin tip , wherein said circular opening is mounted in a web that runs diagonally in relation to the circular structure of the welding shoe , said web having a smoothing face in the movement direction of the procedure of friction stir welding, and wherein the smoothing face has a front edge which is part of a step-shaped chip groove ; and c) the smoothing face in relation to the vertical reference axis of the welding pin has a small angle of attack , characterized in that the smoothing face has the shape of an elongate trapezoidal structure which extends in the diagonal direction of the welding shoe , in which trapezoidal structure in the direction of advancement of the welding shoe in the forward region the wider side extends as a front edge , and in the rear region a corresponding narrower side extends as a rear edge , wherein furthermore the rear edge forms the delimitation of a run-out face of the smoothing face that is conceived so as to be step-shaped, and wherein the trapezoidal structure is supplemented by a left and a right curve-shaped lateral face , the plane normal thereof in each case extending in the direction toward the opening . a) a drive head which by means of a receptacle head is guided by a guiding machine, and a holding bell for a welding shoe that by means of a fastening flange is screw-fitted to the drive head , form the drive and the guide for a welding pin tip ; b) the welding shoe has a circular structure which in the centre thereof has a circular opening for receiving the welding pin tip , wherein said circular opening is mounted in a web that runs diagonally in relation to the circular structure of the welding shoe , said web having a smoothing face in the movement direction of the procedure of friction stir welding, and wherein the smoothing face has a front edge which is part of a step-shaped chip groove ; and c) the smoothing face in relation to the vertical reference axis of the welding pin has a small angle of attack ,
A sealing device capable of being disposed under a layer of small covering elements forming a roof including a plurality of rows, said covering elements each including an external face oriented toward the sky and an internal face oriented towards a framework and being placed on rows of battens of the framework, the sealing device including at least: - a central portion which is substantially planar, - two longitudinal partitions located on either side of the central portion , the two longitudinal partitions extending from the external face of the central portion and laterally delimiting the central portion , - a foot portion capable of cooperating with a head portion of at least one covering element of row n-1 of the roof by bearing on the latter, - two lateral portions disposed on either side of the central portion , each of the lateral portions being separated from the central portion by one of the longitudinal partitions , each of the lateral portions including a lateral rim which is oriented towards the sky in the mounting position and which extends at least partly along a lateral edge of the respective lateral portion , and - an aeration portion which is tubular and which projects from the external face of said central portion , the aeration portion being configured to house at least partly a ventilation duct, the aeration portion comprising a lower end opening which emerges into the internal face of said central portion and which is intended to allow the ventilation duct to pass through, and an upper end opening, the aeration portion being capable of receiving an aeration lantern , characterized in that each of the longitudinal partitions is provided with breakable portions which are pre-cut vertically, so as to be able to adapt the length of each of the longitudinal partitions . - a central portion which is substantially planar, - two longitudinal partitions located on either side of the central portion , the two longitudinal partitions extending from the external face of the central portion and laterally delimiting the central portion , - a foot portion capable of cooperating with a head portion of at least one covering element of row n-1 of the roof by bearing on the latter, - two lateral portions disposed on either side of the central portion , each of the lateral portions being separated from the central portion by one of the longitudinal partitions , each of the lateral portions including a lateral rim which is oriented towards the sky in the mounting position and which extends at least partly along a lateral edge of the respective lateral portion , and - an aeration portion which is tubular and which projects from the external face of said central portion , the aeration portion being configured to house at least partly a ventilation duct, the aeration portion comprising a lower end opening which emerges into the internal face of said central portion and which is intended to allow the ventilation duct to pass through, and an upper end opening, the aeration portion being capable of receiving an aeration lantern ,
A vehicle lamp with a lamp interior, which is at least partly enclosed by a lamp housing and a light lens, and at least one lighting means with at least one light source , which lighting means is at least partly accommodated in the lamp interior, and which lighting means is provided to fulfill at least one light function with a legally specified light distribution of the vehicle lamp, or which lighting means contributes to a mandatory light distribution of such a light function, comprising a raster image , which is backlit by at least one light source of a lighting means provided to fulfill the corresponding light function or contributing to a specified light distribution of the light function, which raster image produces, on a viewer looking through the light lens from outside of the lamp interior, an autostereoscopic effect with the corresponding depth effect or protruding effect involved in the perception of a spatial shape of the light function, wherein the raster image is illuminated by an organic light-emitting diode as lighting means , and the raster image is applied directly onto the light source .
Computer-implemented method for processing parameters (P) of a machine learning method (L) for providing a correction data record (KD) for a movement correction of a CT image data record (CB) of an object moving during its capture, - wherein a training data record (T) with a number of reference image data records (RD) is provided for introduction into the machine learning method (L), - wherein an iteration is carried out, wherein a correction data record (KD) is determined by means of the machine learning method (L) in each of their iteration steps for each of the reference image data records (RD) and a result (E) of a cost function (CF) dependent on the correction data records (KD) determined in this iteration step is determined , and - wherein the iteration is terminated or a parameter (P) of the machine learning method (L) is modified as a function of the result (E) of the cost function (CF), wherein in order to determine the result (E) of the cost function (CF), differences from the determined correction data records (KD) and previously known training correction data records (TKD) are used, wherein the training correction data records (TKD) are stored in the training data record (T) and assigned to the corresponding reference image data records (RD) or wherein in order to determine the result (E) of the cost function (CF), each of the reference image data records (RD) is deformed according to the assigned correction data record (KD) and a reconstruction image data record (RK) is created from the deformed reference image data record (RD). - wherein a training data record (T) with a number of reference image data records (RD) is provided for introduction into the machine learning method (L), - wherein an iteration is carried out, wherein a correction data record (KD) is determined by means of the machine learning method (L) in each of their iteration steps for each of the reference image data records (RD) and a result (E) of a cost function (CF) dependent on the correction data records (KD) determined in this iteration step is determined , and - wherein the iteration is terminated or a parameter (P) of the machine learning method (L) is modified as a function of the result (E) of the cost function (CF), wherein in order to determine the result (E) of the cost function (CF), differences from the determined correction data records (KD) and previously known training correction data records (TKD) are used, wherein the training correction data records (TKD) are stored in the training data record (T) and assigned to the corresponding reference image data records (RD) or wherein in order to determine the result (E) of the cost function (CF), each of the reference image data records (RD) is deformed according to the assigned correction data record (KD) and a reconstruction image data record (RK) is created from the deformed reference image data record (RD).
A cell expressing a CAR molecule that binds CD19 (a CAR19-expressing cell) for use in the treatment of a disease associated with expression of CD19 in a subject, wherein the subject is a complete responder, a partial responder, has stable disease, or has progressive disease, after treatment with a BTK inhibitor, and wherein the treatment with said CAR19-expressing cell comprises administering the CAR19-expressing cell during the period of said complete response, partial response, stable disease, or progressive disease.