mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-readable medium comprising instructions which, when executed by a computer, cause the computer to carry out the following steps for quantitative evaluation: delineating a volume of interest in a four-dimensional "4D" Digital Subtraction Angiography "DSA" dataset ; extracting a centerline of the volume of interest characterized by the following steps: in response to receiving a single user-selected point along the centerline , determining a differential volumetric flow rate at the single user-selected point ; in response to receiving at least two user-selected points along the centerline , determining a volumetric flow rate between the two user-selected points ; and generating a visualization based on the differential volumetric flow rate at the single user-selected point or the volumetric flow rate between the two user-selected points . delineating a volume of interest in a four-dimensional "4D" Digital Subtraction Angiography "DSA" dataset ; extracting a centerline of the volume of interest characterized by the following steps: in response to receiving a single user-selected point along the centerline , determining a differential volumetric flow rate at the single user-selected point ; in response to receiving at least two user-selected points along the centerline , determining a volumetric flow rate between the two user-selected points ; and generating a visualization based on the differential volumetric flow rate at the single user-selected point or the volumetric flow rate between the two user-selected points . in response to receiving a single user-selected point along the centerline , determining a differential volumetric flow rate at the single user-selected point ; in response to receiving at least two user-selected points along the centerline , determining a volumetric flow rate between the two user-selected points ; and generating a visualization based on the differential volumetric flow rate at the single user-selected point or the volumetric flow rate between the two user-selected points .
A soft gelatin capsule comprising a suspension composition of tadalafil, or a pharmaceutically acceptable salt thereof, in a liquid carrier, wherein the liquid carrier comprises a vegetable oil, a non-ionic emulsifier with hydrophile-lipophile balance value lower or equal to 10, a non-ionic emulsifier with hydrophile-lipophile balance value from 12 to 14, and one or more thickening agents.
Pharmaceutical composition for use in promoting chondrogenesis, wherein the pharmaceutical composition comprises a hyaluronic acid mixture and a statin compound.
A homogenizer for liquid food, comprising: - a homogenization device having a gap formed between a seat and a forcer , - a pump configured to provide a pressure for forcing the liquid food through the gap and thereby homogenize the liquid food, the homogenizer being characterized by : - an accumulator , wherein the pump is connected to the accumulator to accumulate a pressure in the accumulator , - a cylinder arrangement , connected to the accumulator and to the homogenization device and comprising a piston that is configured to push a volume of the liquid food through the gap , and - a valve arranged to release pressure accumulated in the accumulator , such that the released pressure actuates the piston to push the volume of the liquid food through the gap . - a homogenization device having a gap formed between a seat and a forcer , - a pump configured to provide a pressure for forcing the liquid food through the gap and thereby homogenize the liquid food, the homogenizer being characterized by : - an accumulator , wherein the pump is connected to the accumulator to accumulate a pressure in the accumulator , - a cylinder arrangement , connected to the accumulator and to the homogenization device and comprising a piston that is configured to push a volume of the liquid food through the gap , and - a valve arranged to release pressure accumulated in the accumulator , such that the released pressure actuates the piston to push the volume of the liquid food through the gap . - an accumulator , wherein the pump is connected to the accumulator to accumulate a pressure in the accumulator , - a cylinder arrangement , connected to the accumulator and to the homogenization device and comprising a piston that is configured to push a volume of the liquid food through the gap , and - a valve arranged to release pressure accumulated in the accumulator , such that the released pressure actuates the piston to push the volume of the liquid food through the gap .
Method for estimating, at an instant k, the state of health SOHE(k) of an accumulator battery installed in an item of equipment and intended to supply said item of equipment with electrical energy, the value SOHE(K) being determined by the following relation: SOHE k = SOHE model k − α ic T ⋅ SOHE model T − SOHE algorithm T in which: - SOHE model is a model of trend over time of the state of health of the battery from a state of health at an initial instant; - SOHE algorithm is an estimator making it possible to determine the state of health of the battery at any instant, from measurements of electrical quantities relating to the operation of the battery made at said instant, the instant T being a recalibration instant, prior to the instant k; - the coefficient α ic (T) is the index of trust assigned to the value supplied by the estimator SOHE algorithm at the recalibration instant T; the method being characterized in that the coefficient α ic is defined at the instant k by the following relation: α ic k = f dSOHE algorithm SOHE algorithm in which dSOHE algorithm corresponds to the theoretical error committed on the calculation of the SOHE algorithm given the accuracy of the measurement sensors used. - SOHE model is a model of trend over time of the state of health of the battery from a state of health at an initial instant; - SOHE algorithm is an estimator making it possible to determine the state of health of the battery at any instant, from measurements of electrical quantities relating to the operation of the battery made at said instant, the instant T being a recalibration instant, prior to the instant k; - the coefficient α ic (T) is the index of trust assigned to the value supplied by the estimator SOHE algorithm at the recalibration instant T; the method being characterized in that the coefficient α ic is defined at the instant k by the following relation: α ic k = f dSOHE algorithm SOHE algorithm in which dSOHE algorithm corresponds to the theoretical error committed on the calculation of the SOHE algorithm given the accuracy of the measurement sensors used.
A monitoring device of an extracorporeal blood treatment machine, which is configured to detect a signal continuously representing a concentration of pollutants in a used dialysis liquid and to automatically evaluate a signal course with respect to at least one predetermined signal course indicator or signal course pattern for an existing recirculation, characterized in that the monitoring device is further configured to differentiate the signal for evaluation in order to calculate a differential signal and compare it with at least one threshold value, wherein a certain frequency or duration of threshold value overruns and/or a one-time threshold value overrun of the same or another threshold value is recognized as a signal course indicator or signal course pattern for an existing recirculation, and upon determination of the at least one signal course indicator or signal course pattern, to automatically initiate a recirculation measurement or automatically output a request for initiating a recirculation measurement to a user. differentiate the signal for evaluation in order to calculate a differential signal and compare it with at least one threshold value, wherein a certain frequency or duration of threshold value overruns and/or a one-time threshold value overrun of the same or another threshold value is recognized as a signal course indicator or signal course pattern for an existing recirculation, and upon determination of the at least one signal course indicator or signal course pattern, to automatically initiate a recirculation measurement or automatically output a request for initiating a recirculation measurement to a user.
A conjugate for use in treating a degenerative or autoimmune disorder of the central nervous system, comprising an isolated p97 polypeptide that consists of (a) an amino acid sequence selected from the group consisting of SEQ ID NO:1 and 5-6, (b) an amino acid sequence having at least 97% identity along its length to a sequence of (a), or (c) an amino acid sequence that differs from a sequence of (a) by the addition or deletion of 1, 2, 3, 4, or 5 N-terminal and/or C-terminal residues, where the p97 polypeptide is covalently or operatively linked to an agent, to form a p97-agent conjugate, and wherein the p97 polypeptide is able to bind to the p97 receptor.
Fitting , in particular for a shower partition , having two fitting halves which are connected or can be connected in an articulated manner for the pivotable, swinging mounting of a partition or door on a component, such as a pane , the fitting having a coupling part for the articulated coupling of the fitting halves , forming two joints with parallel pivot axes , wherein the fitting has an adjustable stop acting between one of the fitting halves and the coupling part , characterized in that the fitting has a lifting device for superimposing an axial lifting movement when the partition and/or door is pivoted about one of the two pivot axes , the lifting device having a lifting element which is inserted or can be inserted into the coupling part and can be adjusted along the one of the two pivot axes . wherein the fitting has an adjustable stop acting between one of the fitting halves and the coupling part , characterized in that the fitting has a lifting device for superimposing an axial lifting movement when the partition and/or door is pivoted about one of the two pivot axes , the lifting device having a lifting element which is inserted or can be inserted into the coupling part and can be adjusted along the one of the two pivot axes .
A cycle crankset, comprising - independent cranks articulated about a crank axis (x) and each having a pedal axis (w, t), - a cam , and - a chainring assembly pivotably mounted around the cam , about an axis parallel to the crank axis, the cranks being connected to said chainring assembly by means of connecting rods , each articulation point (n) between one of said cranks and one of said connecting rods being located on the portion of the crank opposite the pedal axis (w, t), relative to the crank axis (x), characterized in that said cam is pivotably mounted about said crank axis (x), the pivoting of said cam about said crank axis (x) not being blocked, and the position of the chainring assembly can vary during pedaling, allowing it to self-position. - independent cranks articulated about a crank axis (x) and each having a pedal axis (w, t), - a cam , and - a chainring assembly pivotably mounted around the cam , about an axis parallel to the crank axis, the cranks being connected to said chainring assembly by means of connecting rods , each articulation point (n) between one of said cranks and one of said connecting rods being located on the portion of the crank opposite the pedal axis (w, t), relative to the crank axis (x), characterized in that said cam is pivotably mounted about said crank axis (x), the pivoting of said cam about said crank axis (x) not being blocked, and the position of the chainring assembly can vary during pedaling, allowing it to self-position.
A device for skin improvement or repair comprising: a plurality of microneedles attached to or integral with a supporting base member and arranged in at least one circular pattern on same wherein said microneedles are hollow and have a bore size of between 60-150 μm and are between 250 μm and 1000 μm in length.
An apparatus for rotating and translating at least one particle , the apparatus comprising: means for generating magnetic force and torque; and at least one particle , wherein at least some portion of the at least one particle contains a magnetizable material , said apparatus being characterized in that : the at least one particle is a superparamagnetic particle partially coated with a ferromagnetic component being magnetized in a direction perpendicular to the longitudinal axis of the particle, the apparatus is configured to apply the generated magnetic force to at least some portion of the at least one particle to cause translational motion of the particle , and to apply the generated magnetic torque to at least some other portion of the same at least one particle to cause rotation of the particle , wherein magnetic torque causing rotation of the at least one particle is decoupled from the magnetic force causing translational motion of the at least one particle, and the ratio of the translational and rotational velocities of the particle is variable. means for generating magnetic force and torque; and at least one particle , wherein at least some portion of the at least one particle contains a magnetizable material , said apparatus being characterized in that : the at least one particle is a superparamagnetic particle partially coated with a ferromagnetic component being magnetized in a direction perpendicular to the longitudinal axis of the particle, the apparatus is configured to apply the generated magnetic force to at least some portion of the at least one particle to cause translational motion of the particle , and to apply the generated magnetic torque to at least some other portion of the same at least one particle to cause rotation of the particle , wherein magnetic torque causing rotation of the at least one particle is decoupled from the magnetic force causing translational motion of the at least one particle, and the ratio of the translational and rotational velocities of the particle is variable. the at least one particle is a superparamagnetic particle partially coated with a ferromagnetic component being magnetized in a direction perpendicular to the longitudinal axis of the particle, the apparatus is configured to apply the generated magnetic force to at least some portion of the at least one particle to cause translational motion of the particle , and to apply the generated magnetic torque to at least some other portion of the same at least one particle to cause rotation of the particle , wherein magnetic torque causing rotation of the at least one particle is decoupled from the magnetic force causing translational motion of the at least one particle, and the ratio of the translational and rotational velocities of the particle is variable.
Method for operating a sensor arrangement having at least two sensors (S1, S2) and an evaluation facility (AWE) for monitoring a technical system, wherein the evaluation facility (AWE) is designed to evaluate the sensor signals (Msl, Ms2) of the at least two sensors (S1, S2), characterised in that - a trust indication (Vw(Sl), Vw(S2)) is assigned to each of the sensors (S1, S2) in each case, said trust indication indicating the trustworthiness of the sensor signal (Msl, Ms2) of the respective sensor (S1, S2), wherein the trust indications (Vw(Sl), Vw(S2)) are determined and/or updated on the basis of the temporal course of the sensor signals (Msl, Ms2), and wherein the trust indication (Vw(Sl), Vw(S2)) indicates whether the sensor (S1, S2) is to be considered as trustworthy and its sensor signal (Msl, Ms2) is usable, the sensor (S1, S2) is not to be considered as trustworthy and its sensor signal (Msl, Ms2) is not usable, or the sensor (S1, S2) is to be considered as trustworthy to a restricted degree and its sensor signal (Msl, Ms2) is usable to a restricted degree, and - the evaluation facility (AWE) generates a status indication (Z) describing the status of the system exclusively on the basis of the trustworthy sensors (S1, S2) as well as those sensors (S1, S2) which are trustworthy to a restricted degree and which fulfil at least one predetermined additional condition. - a trust indication (Vw(Sl), Vw(S2)) is assigned to each of the sensors (S1, S2) in each case, said trust indication indicating the trustworthiness of the sensor signal (Msl, Ms2) of the respective sensor (S1, S2), wherein the trust indications (Vw(Sl), Vw(S2)) are determined and/or updated on the basis of the temporal course of the sensor signals (Msl, Ms2), and wherein the trust indication (Vw(Sl), Vw(S2)) indicates whether the sensor (S1, S2) is to be considered as trustworthy and its sensor signal (Msl, Ms2) is usable, the sensor (S1, S2) is not to be considered as trustworthy and its sensor signal (Msl, Ms2) is not usable, or the sensor (S1, S2) is to be considered as trustworthy to a restricted degree and its sensor signal (Msl, Ms2) is usable to a restricted degree, and - the evaluation facility (AWE) generates a status indication (Z) describing the status of the system exclusively on the basis of the trustworthy sensors (S1, S2) as well as those sensors (S1, S2) which are trustworthy to a restricted degree and which fulfil at least one predetermined additional condition.
A method for press-hardening blanks of thermoformable steel, comprising the following method steps: a) a bare, non-coated blank is transported through a heating zone and is heated continuously or also discontinuously at least partially to at least austenitization temperature, b) during heating to austenitization temperature, oxygen access and scale formation is avoided, c) the blank thus heated is cooled down to a temperature below the austenitization temperature, but above the martensite start temperature by way of an intermediate cooling step , d) the blank is then introduced into a thermoforming tool , formed in the tool , and press-hardened at least in some areas, e) the formed blank is removed from the tool and placed down somewhere else, characterized by that f) the intermediate cooling step is performed under avoidance of oxygen access and under avoidance of scale formation, and g) the blank is introduced into the forming tool within a few seconds after the intermediate cooling step and before further cooling down to the martensite start temperature. a) a bare, non-coated blank is transported through a heating zone and is heated continuously or also discontinuously at least partially to at least austenitization temperature, b) during heating to austenitization temperature, oxygen access and scale formation is avoided, c) the blank thus heated is cooled down to a temperature below the austenitization temperature, but above the martensite start temperature by way of an intermediate cooling step , d) the blank is then introduced into a thermoforming tool , formed in the tool , and press-hardened at least in some areas, e) the formed blank is removed from the tool and placed down somewhere else, characterized by that f) the intermediate cooling step is performed under avoidance of oxygen access and under avoidance of scale formation, and g) the blank is introduced into the forming tool within a few seconds after the intermediate cooling step and before further cooling down to the martensite start temperature.
The use of doped quartz glass, at least 99% by weight of which consists of SiO 2 and Al 2 O 3 , wherein the Al 2 O 3 fraction is in the range of 2 to 4% by weight, as an optical filter material having a spectral transmittance at the wavelength of 210 nm of 80% mm -1 or higher and an edge wavelength, for the purpose of shifting the edge wavelength into the wavelength range from 170 to 200 nm, and to reduce a short-wave component of the UV emission of a UV radiation source.
An H-section steel consisting of, by mass%: C: 0.05% to 0.16%; Si: 0.01% to 0.50%; Mn: 0.80% to 2.00%; Ni: 0.05% to 0.50%; V: 0.01% to 0.20%; Ti: 0.005% to 0.030%; N: 0.0010% to 0.0100%; O: 0.0005% to 0.0100%; Cr: 0% to 0.50%; Cu: 0% to 0.30%; Mo: 0% to 0.30%; W: 0% to 0.50%; Al: limited to 0.005% or less; Nb: limited to 0.010% or less; B: limited to 0.0005% or less; Mg: limited to 0.0003% or less; Ca: limited to 0.0003% or less; S: limited to 0.020% or less; P: limited to 0.03% or less; and a remainder including of Fe and impurities, wherein a carbon equivalent C eq obtained by the following Equation 1 is 0.35% to 0.50%, a density of Ti oxides having a grain size of 0.01 μm to 3.0 μm is 30 pieces/mm 2 or more, a thickness of a flange is 100 mm to 150 mm, at a 1/6 position from a surface of the flange in a length direction and at a 1/4 position from the surface thereof in a thickness direction, an area fraction of bainite is 80% or more, a yield strength or 0.2% proof stress is 450 MPa or more, and a tensile strength is 550 MPa or more, and at a 1/2 position from the surface of the flange in the length direction and at a 3/4 position from the surface thereof in the thickness direction, a Charpy absorbed energy at 21°C is 100 J or more, and an average austenite grain size is 50 μm to 200 μm, C eq = C + Mn / 6 + Cr + Mo + V / 5 + Ni + Cu / 15 here, C, Mn, Cr, Mo, V, Ni, and Cu represent the amount % of each element and the amount of an element not contained is 0%. C: 0.05% to 0.16%; Si: 0.01% to 0.50%; Mn: 0.80% to 2.00%; Ni: 0.05% to 0.50%; V: 0.01% to 0.20%; Ti: 0.005% to 0.030%; N: 0.0010% to 0.0100%; O: 0.0005% to 0.0100%; Cr: 0% to 0.50%; Cu: 0% to 0.30%; Mo: 0% to 0.30%; W: 0% to 0.50%; Al: limited to 0.005% or less; Nb: limited to 0.010% or less; B: limited to 0.0005% or less; Mg: limited to 0.0003% or less; Ca: limited to 0.0003% or less; S: limited to 0.020% or less; P: limited to 0.03% or less; and a remainder including of Fe and impurities, wherein a carbon equivalent C eq obtained by the following Equation 1 is 0.35% to 0.50%, a density of Ti oxides having a grain size of 0.01 μm to 3.0 μm is 30 pieces/mm 2 or more, a thickness of a flange is 100 mm to 150 mm, at a 1/6 position from a surface of the flange in a length direction and at a 1/4 position from the surface thereof in a thickness direction, an area fraction of bainite is 80% or more, a yield strength or 0.2% proof stress is 450 MPa or more, and a tensile strength is 550 MPa or more, and at a 1/2 position from the surface of the flange in the length direction and at a 3/4 position from the surface thereof in the thickness direction, a Charpy absorbed energy at 21°C is 100 J or more, and an average austenite grain size is 50 μm to 200 μm, C eq = C + Mn / 6 + Cr + Mo + V / 5 + Ni + Cu / 15 here, C, Mn, Cr, Mo, V, Ni, and Cu represent the amount % of each element and the amount of an element not contained is 0%.