mhurhangee/patent-ind-claim-en huggingface dataset:
Travelling crane having a horizontally extending crane girder which can travel rail-bound along a craneway, wherein the craneway includes stationary profile girders serving as travel rails, the travel rails extend spaced apart from each other and in parallel with each other in the horizontal direction of travel of the travelling crane and are arranged high above a floor, and having a crane trolley which can travel along the crane girder and carries a lifting device for raising and lowering a load, wherein the lifting device comprises a carrying means formed as a cable or chain and the travelling crane comprises electrical drives for movements of the travelling crane , characterised in that the travelling crane comprises an energy storage device which is connected to the drives in order to supply the drives with energy, and in that a charging station is provided which can be approached by the travelling crane in such a manner that the energy storage device can draw energy from the charging station as required when the travelling crane is in the charging station , wherein the charging station draws energy from an external energy source which includes a solar module and/or a public power supply network , and in that a second energy storage device is provided which is connected to the charging station and the external energy source in order to draw energy from the external energy source, to store said energy and to output said energy to the energy storage device of the travelling crane via the charging station .
A hand-held applicator for treating biological tissue comprising: a body constructed and arranged to connect with a laser source, a magnetic roller provided at a distal end of the body, a magnetic field sensor associated with the magnet roller and constructed and arranged to detect phase changes as the magnetic roller rotates, a valve constructed and arranged to provide a source of cooling agent to the biological tissue during treatment, and a trigger circuit connected with the magnetic field sensor and valve, wherein, based on a number of phase changes detected by the magnetic field sensor as the magnetic roller rotates, the trigger circuit is constructed and arranged to trigger the valve to apply the cooling agent to the treated biological tissue. a body constructed and arranged to connect with a laser source, a magnetic roller provided at a distal end of the body, a magnetic field sensor associated with the magnet roller and constructed and arranged to detect phase changes as the magnetic roller rotates, a valve constructed and arranged to provide a source of cooling agent to the biological tissue during treatment, and a trigger circuit connected with the magnetic field sensor and valve, wherein, based on a number of phase changes detected by the magnetic field sensor as the magnetic roller rotates, the trigger circuit is constructed and arranged to trigger the valve to apply the cooling agent to the treated biological tissue.
A part-conical section , for use as part of a separation chamber of a hydrocyclone , the part-conical section comprising: an upper end defining internal and external diameters and including an upper mount for coupling the part-conical section to a cylindrical fluid input portion of the hydrocyclone ; a lower end including a lower mount for coupling the part-conical section to either another part-conical section or a spigot of the hydrocyclone ; a sidewall defining an internal passageway along a fluid transport axis and an external surface , the sidewall thickness at the upper end being narrower than the sidewall thickness at the lower end; wherein the internal passageway extends from the upper end to the lower end and defines a radially-inward tapering portion with respect to the fluid transport axis , and a non-inwardly-tapering portion with respect to the fluid transport axis , the tapering portion extending from the upper end to thenon-inwardly-tapering portion , and the non-inwardly-tapering portion extending from a narrow end of the tapering portion to the lower end; characterised in that the part-conical section is not a spigot, and the lower end defines smaller internal and external diameters than the upper end. an upper end defining internal and external diameters and including an upper mount for coupling the part-conical section to a cylindrical fluid input portion of the hydrocyclone ; a lower end including a lower mount for coupling the part-conical section to either another part-conical section or a spigot of the hydrocyclone ; a sidewall defining an internal passageway along a fluid transport axis and an external surface , the sidewall thickness at the upper end being narrower than the sidewall thickness at the lower end; wherein the internal passageway extends from the upper end to the lower end and defines a radially-inward tapering portion with respect to the fluid transport axis , and a non-inwardly-tapering portion with respect to the fluid transport axis , the tapering portion extending from the upper end to thenon-inwardly-tapering portion , and the non-inwardly-tapering portion extending from a narrow end of the tapering portion to the lower end; characterised in that the part-conical section is not a spigot, and the lower end defines smaller internal and external diameters than the upper end.
A polynucleic acid molecule that mediates RNA interference against MYC, comprising a sense strand and an antisense strand, wherein the sense strand comprises a sequence selected from SEQ ID NOs: 5 and 7 and the antisense strand comprises a sequence selected from SEQ ID NOs: 6 and 8, wherein the polynucleic acid molecule hybridizes to a MYC target sequence, and wherein: • the polynucleic acid molecule comprises at least one 2' modified nucleotide, at least five phosphorothioate internucleotide linkages, and at least one inverted abasic moiety; • the antisense strand comprises at least three consecutive phosphorothioate internucleotide linkage starting at the 5' terminus and at least one phosphorothioate internucleotide linkage at the 3' terminus; • the sense strand comprises at least one phosphorothioate internucleotide linkage; • the number of phosphorothioate internucleotide linkages in the sense strand is less than the number of phosphorothioate internucleotide linkages in the antisense strand; • the polynucleic acid molecule comprises from 90% to 100% modification; and • the sense strand and antisense strand are from 20 to 22 nucleotides in length. • the polynucleic acid molecule comprises at least one 2' modified nucleotide, at least five phosphorothioate internucleotide linkages, and at least one inverted abasic moiety; • the antisense strand comprises at least three consecutive phosphorothioate internucleotide linkage starting at the 5' terminus and at least one phosphorothioate internucleotide linkage at the 3' terminus; • the sense strand comprises at least one phosphorothioate internucleotide linkage; • the number of phosphorothioate internucleotide linkages in the sense strand is less than the number of phosphorothioate internucleotide linkages in the antisense strand; • the polynucleic acid molecule comprises from 90% to 100% modification; and • the sense strand and antisense strand are from 20 to 22 nucleotides in length.
A target capture oligomer comprising first and second stem segments differing in length by at least two nucleobases flanking a target-binding segment complementary to a target nucleic acid, , wherein the first stem segment comprises polyA, and the second stem segment comprises polyT or vice versa, wherein the first stem segment and the second stem segment differ in length by at least 5 nucleobase units, wherein under hybridizing conditions: in the absence of the target nucleic acid the target capture oligomer forms a stem-loop, intramolecular hybridization of the polyA and polyT of the first and second stem segments forming the stem, and the target-binding segment forming the loop; and in the presence of the target nucleic acid, the target-binding segment hybridizes to the target nucleic acid disrupting the intramolecular hybridization of the first and second stem segments resulting in the polyA or polyT of the first and second stem segments being accessible to hybridize to a complementary immobilized probe. in the absence of the target nucleic acid the target capture oligomer forms a stem-loop, intramolecular hybridization of the polyA and polyT of the first and second stem segments forming the stem, and the target-binding segment forming the loop; and in the presence of the target nucleic acid, the target-binding segment hybridizes to the target nucleic acid disrupting the intramolecular hybridization of the first and second stem segments resulting in the polyA or polyT of the first and second stem segments being accessible to hybridize to a complementary immobilized probe.
A cyclopropyl unsaturated quinoline compound or a pharmaceutically acceptable salt, hydrate or solvate thereof for use as a leukotriene receptor antagonist, for use in treating and/or preventing and/or delaying and/or providing adjuvant therapy for asthma and/or allergic rhinitis and asthma syndromes, having a structural formula as follows:
An article of apparel comprising: a dynamic padding system including a plurality of padding elements fixedly mounted on a base layer, a filament surrounding two or more of the padding elements , a spool , a portion of the filament being wound around the spool , wherein the spool is configured to reversibly change the filamen from a first configuration to a second configuration and wherein the two or more padding elements which are surrounded by the filament have a first distance between them when the filament is in the first configuration, and have a second distance between them when the filament is in the second configuration, where the second distance is less than the first distance, characterized by comprising an input source that is configured to deliver an input to the spool wherein the spool is configured to reversibly change the filament from the first configuration to the second configuration upon receiving the input from the input source.
Method for at least semi-autonomously manoeuvring a motor vehicle , in which a sensor is used to determine a position value describing a current relative position between an object in an area surrounding the motor vehicle and the motor vehicle , a driving trajectory characterized in that is determined, the motor vehicle is manoeuvred along the determined driving trajectory , characterized in that the position value is continuously updated during manoeuvring of the motor vehicle on the basis of odometry, and contact between at least one wheel of the motor vehicle and the object is detected, wherein the position value is corrected if the contact between the at least one wheel and the object is detected and the position value describes a relative position which differs from the contact between the at least one wheel and the object , wherein a digital environmental map which describes the surrounding area is provided, and a position of the motor vehicle and/or of the object in the environmental map is adapted on the basis of the corrected position value.
A display device, comprising: a display substrate including a plurality of subpixels (SP1, SP2, SP3) respectively provided in a plurality of pixel areas defined by a plurality of data lines (DL) and a plurality of gate lines (GL); and a line substrate bonded to the display substrate by using a substrate bonding member , the line substrate including a plurality of data routing lines ; wherein the display substrate comprises a first surface having the plurality of data lines (DL) and the plurality of gate lines (GL) and a second surface opposite the first surface; characterized by : a first side data connection member on a first side of the display substrate and on a corresponding first side of the line substrate , the first side data connection member connecting the plurality of data lines (DL) to the plurality of data routing lines in a one-to-one relationship; wherein the line substrate is bonded to the second surface of the display substrate by using the substrate bonding member ; and wherein the first sides of the display substrate and of the line substrate extend in thickness direction (Z). a display substrate including a plurality of subpixels (SP1, SP2, SP3) respectively provided in a plurality of pixel areas defined by a plurality of data lines (DL) and a plurality of gate lines (GL); and a line substrate bonded to the display substrate by using a substrate bonding member , the line substrate including a plurality of data routing lines ; wherein the display substrate comprises a first surface having the plurality of data lines (DL) and the plurality of gate lines (GL) and a second surface opposite the first surface; characterized by : a first side data connection member on a first side of the display substrate and on a corresponding first side of the line substrate , the first side data connection member connecting the plurality of data lines (DL) to the plurality of data routing lines in a one-to-one relationship; wherein the line substrate is bonded to the second surface of the display substrate by using the substrate bonding member ; and wherein the first sides of the display substrate and of the line substrate extend in thickness direction (Z). a first side data connection member on a first side of the display substrate and on a corresponding first side of the line substrate , the first side data connection member connecting the plurality of data lines (DL) to the plurality of data routing lines in a one-to-one relationship; wherein the line substrate is bonded to the second surface of the display substrate by using the substrate bonding member ; and wherein the first sides of the display substrate and of the line substrate extend in thickness direction (Z).
A method of measuring the molecular weight of a gas using a high-frequency planar piezoelectric crystal oscillator in contact with the gas, the method comprising: a) utilising said piezoelectric crystal oscillator to measure the density of the gas by: utilising a drive circuit configured to obtain a voltage signal from the piezoelectric crystal oscillator , to amplify the voltage signal and to drive the piezoelectric crystal oscillator with the amplified voltage signal such that the piezoelectric crystal oscillator resonates at a single resonant frequency despite changes in the Q-factor of the piezoelectric crystal oscillator; and measuring said single resonant frequency of said piezoelectric crystal to determine the density (p) of gas based on the approximation that a change in resonant frequency (Δf) is linearly proportional to a change in density; and b) determining , from the density, determined or pre-determined pressure of the gas and determined or pre-determined temperature of the gas, the molecular weight of the gas. a) utilising said piezoelectric crystal oscillator to measure the density of the gas by: utilising a drive circuit configured to obtain a voltage signal from the piezoelectric crystal oscillator , to amplify the voltage signal and to drive the piezoelectric crystal oscillator with the amplified voltage signal such that the piezoelectric crystal oscillator resonates at a single resonant frequency despite changes in the Q-factor of the piezoelectric crystal oscillator; and measuring said single resonant frequency of said piezoelectric crystal to determine the density (p) of gas based on the approximation that a change in resonant frequency (Δf) is linearly proportional to a change in density; and utilising a drive circuit configured to obtain a voltage signal from the piezoelectric crystal oscillator , to amplify the voltage signal and to drive the piezoelectric crystal oscillator with the amplified voltage signal such that the piezoelectric crystal oscillator resonates at a single resonant frequency despite changes in the Q-factor of the piezoelectric crystal oscillator; and measuring said single resonant frequency of said piezoelectric crystal to determine the density (p) of gas based on the approximation that a change in resonant frequency (Δf) is linearly proportional to a change in density; and b) determining , from the density, determined or pre-determined pressure of the gas and determined or pre-determined temperature of the gas, the molecular weight of the gas.
A method for automatically checking at least one protected area on an industrial truck , which is equipped with at least one monitoring apparatus that is firmly mounted on the vehicle, monitors one protected area laterally of and/or one protected area in front of the industrial truck , and indicates a violation of the protected area when an object or a person is located in the protected area , wherein the method has the following steps: • Switching on the at least one protected area on the industrial truck , • Picking up and lifting a load carrier , • Checking whether the protected area or areas are clear, • Lowering the load carrier when the at least one protected area is clear, • Checking whether a violation of the protected area occurs after the load carrier is lowered, • Generating a protected area error when a violation of the protected area has occurred. • Switching on the at least one protected area on the industrial truck , • Picking up and lifting a load carrier , • Checking whether the protected area or areas are clear, • Lowering the load carrier when the at least one protected area is clear, • Checking whether a violation of the protected area occurs after the load carrier is lowered, • Generating a protected area error when a violation of the protected area has occurred.
Computer-implemented method for dynamically assessing a moving object from a sequence of consecutive volumetric image frames of such object, which images are timely separated by a certain time interval, the method comprising: a) identifying in at least one image of the sequence the object of interest; b) segmenting the object to identify object contour; c) propagating the object contour as identified to other images of the sequence; d) performing dynamic analysis of the object based on the object contour as propagated, wherein the object is a valve of the heart and the object contour is the valve annulus, characterized in that segmenting the object comprises: receiving from a user a seed point indicating the center of the valve ; automatically determining the long axis of the valve by using the seed point to estimate the location of the apex point of the ventricle of the heart and the center-lumen line within the ventricle. a) identifying in at least one image of the sequence the object of interest; b) segmenting the object to identify object contour; c) propagating the object contour as identified to other images of the sequence; d) performing dynamic analysis of the object based on the object contour as propagated, receiving from a user a seed point indicating the center of the valve ; automatically determining the long axis of the valve by using the seed point to estimate the location of the apex point of the ventricle of the heart and the center-lumen line within the ventricle.
A sensor for measuring a conductivity of a liquid comprising a first electrode and a second electrode , each electrode comprising a plurality of electrode fingers (21-N, 22-M) and having a surface area, the surface area of the electrodes determine a cell constant of the sensor (Kcell), wherein at least one of the electrodes is provided with a switching means (S1,S2) arranged so that the surface area of the respective electrode can be changed, by switchably connecting electrode fingers to an electrode terminal (22-0) thereby varying the cell constant (Kcell) of the sensor.
A method performed by a terminal device, comprising: detecting , for a cell that is shared by two operators and to be measured by the terminal device, whether frequency bands used by the two operators for the cell are overlapped; when detecting that frequency bands used by the two operators for the cell are overlapped, performing measurement on a reference signal from one of the two operators at least at the overlapped portion of the frequency bands; and reporting information about a result of the measurement to the two operators. detecting , for a cell that is shared by two operators and to be measured by the terminal device, whether frequency bands used by the two operators for the cell are overlapped; when detecting that frequency bands used by the two operators for the cell are overlapped, performing measurement on a reference signal from one of the two operators at least at the overlapped portion of the frequency bands; and reporting information about a result of the measurement to the two operators.
The use of cetearyl sulfosuccinates to increase the water resistance of cosmetic preparations comprising 2-ethylhexyl 2-cyano-3,3-diphenyl acrylate (octocrylene) and 4-(tert-butyl)-4'-methoxydibenzoylmethane.
Operating method for an electric drive that has an electric machine , a semiconductor switching device feeding the electric machine , and a control device controlling the semiconductor switching device , wherein the control device - continuously acquires an operating parameter (BP) of the electric drive through measurement or derives said operating parameter from variables (n, T, T') acquired through measurement, - continuously checks whether the operating parameter (BP), starting from values below a trigger value (G2), reaches the trigger value (G2), - then, if the operating parameter (BP) reaches the trigger value (G2), sets a maximum permissible relative maximum current (ImaxR) equal to a current (I) being fed by the semiconductor switching device into the electric machine at this time, - ascertains, for values of the operating parameter (BP) between the trigger value (G2) and a limit value (G3) that is above the trigger value (G2), a current limit value profile (K) that, from the trigger value (G2) to the limit value (G3) of the operating parameter (BP), falls from the relative maximum current (ImaxR) strictly monotonously to a minimum current (Imin), and - during further operation of the electric drive , limits the current (I) fed by the semiconductor switching device into the electric machine in accordance with the ascertained current limit value profile (K) for values of the operating parameter (BP) between the trigger value (G2) and the limit value (G3). - continuously acquires an operating parameter (BP) of the electric drive through measurement or derives said operating parameter from variables (n, T, T') acquired through measurement, - continuously checks whether the operating parameter (BP), starting from values below a trigger value (G2), reaches the trigger value (G2), - then, if the operating parameter (BP) reaches the trigger value (G2), sets a maximum permissible relative maximum current (ImaxR) equal to a current (I) being fed by the semiconductor switching device into the electric machine at this time, - ascertains, for values of the operating parameter (BP) between the trigger value (G2) and a limit value (G3) that is above the trigger value (G2), a current limit value profile (K) that, from the trigger value (G2) to the limit value (G3) of the operating parameter (BP), falls from the relative maximum current (ImaxR) strictly monotonously to a minimum current (Imin), and - during further operation of the electric drive , limits the current (I) fed by the semiconductor switching device into the electric machine in accordance with the ascertained current limit value profile (K) for values of the operating parameter (BP) between the trigger value (G2) and the limit value (G3).