mhurhangee/patent-ind-claim-en huggingface dataset:
An electrophysiology apparatus comprising a high voltage pulsed direct current (DC) supply and at least two catheters configured for endocardial access, each of the at least two catheters including at least one catheter tip and electrode assembly connectable with the high voltage pulsed DC supply to provide the at least two catheters with oppositely charged electroporation electrodes, wherein each of the at least two catheters is configured to be inserted into a different natural lumen or cavity adjacent to a target tissue at an abluminal location such that, in use, the at least two catheters at the different natural lumens or cavities create a peak cumulative electric field at the abluminal location between the oppositely charged electroporation electrodes to effect electroporation of the target tissue, wherein the electrodes of each catheter tip and electrode assembly are individually controllable by a controller operable by a user, or by a programmable control system incorporating a controller, wherein said controller is configured to control the duration of an electrical field pulse delivered by the high voltage pulsed DC supply, characterised in that said controller is further configured to selectively control the pairing of (+) and (-) electrodes of the catheter tip and electrode assemblies according to a switching sequence.
Method for cultivating primary Mesenchymal Stem Cells (MSCs) in vitro, wherein the cells are cultivated in a culture medium comprising at least one ketone body.
A method for specifying a material color of a dental restoration, wherein the desired tooth color is entered into a corresponding choice box by the user as a target tooth color , which color is specified by the user based on a tooth key as the tooth color of a neighboring tooth or the neighboring teeth, wherein when specifying the material color of the dental restoration based on the target tooth color the material color of the selected materials of the dental restoration material is changed based on parameters of the color of a stump and/or an abutment, the layer thickness of the dental restoration, the type of dental restoration, if applicable, the processing technique, wherein specification of the material color of the dental restoration and selection of the appropriate dental restoration material is controlled by a computer program, and wherein once one parameter is selected, the next parameter is automatically provided, wherein the selection is limited based on the target tooth color and parameters dependent thereon, such as layer thickness, restoration type, i.e. the indication and the material, and when all selections have been performed, display of the result of the material selection is activated rather than activating the choice boxes.
A deflection measurement assembly (88;188;288;388) for a gas turbine engine, comprising: a nacelle arranged about an axis (A) to define a flow path (B), the nacelle including a stationary first nacelle section and a second nacelle section aft of the stationary first nacelle section , wherein the second nacelle section is moveable relative to the stationary first nacelle section ; a cable assembly (89;189;289;389) circumferentially arranged at least partially about the axis (A), the cable assembly (89;189;289;389) moveable relative to the axis (A) in response to a change in cross-sectional area of the flow path (B); a transducer (90;190;290;390) coupled to the cable assembly (89...389) and configured to be actuated by the cable assembly (89...389); and a controller (91;191;291;391) coupled to the transducer (90...390), the controller (91...391) operable to determine a deflection of the nacelle in response to actuation of the transducer (90...390); characterised in that : the cable assembly (89...389) includes at least one cable (92;192;292;392) disposed at least partially about a perimeter of the stationary first nacelle section ; and the deflection relates to the change in a cross-sectional area of the flow path (B) at a location corresponding to the cable assembly (89...389) along the stationary first nacelle section . a nacelle arranged about an axis (A) to define a flow path (B), the nacelle including a stationary first nacelle section and a second nacelle section aft of the stationary first nacelle section , wherein the second nacelle section is moveable relative to the stationary first nacelle section ; a cable assembly (89;189;289;389) circumferentially arranged at least partially about the axis (A), the cable assembly (89;189;289;389) moveable relative to the axis (A) in response to a change in cross-sectional area of the flow path (B); a transducer (90;190;290;390) coupled to the cable assembly (89...389) and configured to be actuated by the cable assembly (89...389); and a controller (91;191;291;391) coupled to the transducer (90...390), the controller (91...391) operable to determine a deflection of the nacelle in response to actuation of the transducer (90...390); characterised in that : the cable assembly (89...389) includes at least one cable (92;192;292;392) disposed at least partially about a perimeter of the stationary first nacelle section ; and the deflection relates to the change in a cross-sectional area of the flow path (B) at a location corresponding to the cable assembly (89...389) along the stationary first nacelle section . the cable assembly (89...389) includes at least one cable (92;192;292;392) disposed at least partially about a perimeter of the stationary first nacelle section ; and the deflection relates to the change in a cross-sectional area of the flow path (B) at a location corresponding to the cable assembly (89...389) along the stationary first nacelle section .
A method performed by a system of a wireless communication network , for detecting neighboring User Equipments, UEs, of a first UE that is wirelessly connected to a first base station of the network, the method comprising: receiving power measurements performed on signals received at the first UE, which signals are sent from base stations in the vicinity of the first UE, each received power measurement being associated with an ID of the base station from which the signal was sent, receiving power measurements of signals received at a second UE that is wirelessly connected to a second base station of the network, different from the first base station, which signals are sent from base stations in the vicinity of the second UE, each power measurement being associated with an ID of the base station from which the signal was sent, determining a correlation between the received power measurements of the first UE and the received power measurements of the second UE, based on the determined correlation, determining whether the second UE is a neighbor to the first UE. receiving power measurements performed on signals received at the first UE, which signals are sent from base stations in the vicinity of the first UE, each received power measurement being associated with an ID of the base station from which the signal was sent, receiving power measurements of signals received at a second UE that is wirelessly connected to a second base station of the network, different from the first base station, which signals are sent from base stations in the vicinity of the second UE, each power measurement being associated with an ID of the base station from which the signal was sent, determining a correlation between the received power measurements of the first UE and the received power measurements of the second UE, based on the determined correlation, determining whether the second UE is a neighbor to the first UE.
Method for carrying out a manoeuvring process of a motor vehicle in which the manoeuvring of the motor vehicle is carried out by a user positioned outside the motor vehicle in the vicinity of the motor vehicle , by means of a portable communication terminal , and signals are exchanged between the communication terminal and the motor vehicle for this purpose, wherein a distance (A) between the motor vehicle and the portable communication terminal is determined, wherein the motor vehicle is captured at least partially by a camera of the portable communication terminal during the manoeuvring process, wherein the distance (A) between the motor vehicle and the communication terminal is determined depending on the captured image information, characterized in that a display unit of the communication terminal displays the determined distance (A) and/or a manoeuvring trajectory of the motor vehicle and/or operating instructions as augmented reality in an image, and an identification check of the motor vehicle is carried out before the distance (A) is determined, wherein for this purpose the at least one captured image is searched for at least one characteristic feature of the motor vehicle , and the motor vehicle is identified as the one authenticated for control by the communication terminal if a characteristic feature is recognized in the image. the distance (A) between the motor vehicle and the communication terminal is determined depending on the captured image information, characterized in that a display unit of the communication terminal displays the determined distance (A) and/or a manoeuvring trajectory of the motor vehicle and/or operating instructions as augmented reality in an image, and an identification check of the motor vehicle is carried out before the distance (A) is determined, wherein for this purpose the at least one captured image is searched for at least one characteristic feature of the motor vehicle , and the motor vehicle is identified as the one authenticated for control by the communication terminal if a characteristic feature is recognized in the image.
A system for controlling heated air in a device that is partitioned into two or more zones , comprising: one or more temperature sensors configured to measure air temperature of each of the two or more zones ; one or more moving components configured to form one or more air channels to transfer the heated air; and a controller configured to: receive the measured air temperature of each of the two or more zones from the one or more sensors , determine whether the measured air temperature of each of the two or more zones is above a threshold value corresponding to each of the two or more zones , and manipulate at least one of the one or more moving components for the heated air to bypass a zone among the two or more zones , when the measured air temperature of the zone is above its threshold value. one or more temperature sensors configured to measure air temperature of each of the two or more zones ; one or more moving components configured to form one or more air channels to transfer the heated air; and a controller configured to: receive the measured air temperature of each of the two or more zones from the one or more sensors , determine whether the measured air temperature of each of the two or more zones is above a threshold value corresponding to each of the two or more zones , and manipulate at least one of the one or more moving components for the heated air to bypass a zone among the two or more zones , when the measured air temperature of the zone is above its threshold value. receive the measured air temperature of each of the two or more zones from the one or more sensors , determine whether the measured air temperature of each of the two or more zones is above a threshold value corresponding to each of the two or more zones , and manipulate at least one of the one or more moving components for the heated air to bypass a zone among the two or more zones , when the measured air temperature of the zone is above its threshold value.
A wireless battery management system for vehicles, the wireless battery management system comprising: at least one cell module controller (CMC) having a wireless communication module and a battery module; and a battery master controller (BMC) wirelessly connected to the wireless communication module of the at least one CMC and configured to manage the at least one CMC, wherein the BMC is configured to transmit Advertising data configured for the at least one CMC, wherein the at least one CMC is configured to transmit Scan Request data to the BMC in response to the configured Advertising data, wherein the BMC is configured to transmit Scan Response data to the at least one CMC in response to the Scan Request data, and wherein the configured Advertising data includes scheduling information for next Advertising data transmission; wherein the scheduling information includes frequency information and time information for the next Advertising data transmission; and based on that the BMC receives the Scan Request data, the scheduling information is updated; and wherein the frequency information is determined as a channel index.
Method for handling, in particular automatic reception, storage and dispensing of items and/or item consignments received in a packaging, wherein the items and/or item consignments are packaged in a packaging designed magnetic or ferromagnetic at least in some sections, wherein the packaging designed magnetic or ferromagnetic at least in some sections is magnetically grasped and at least in some sections is pulled by means of an electromagnetic grasping, pushing and/or pulling means onto a transport area of an receiving/discharging unit, wherein the packaging after transport is pushed out of the transport area by means of the electromagnetic grasping, pushing and/or pulling means, characterized in, that the transport area used is one which has a flat electromagnetic transport surface, in or under which an electromagnetic device is arranged, that the packaging used is of magnetic or ferromagnetic design at least at packaging sections which come into contact with the electromagnetic means of the gripping, pushing or pulling means and with the electromagnetic device of the transport surface, that the packaging, which is of magnetic or ferromagnetic design at least in sections, is pulled completely onto the electromagnetic transport surface by the electromagnetic gripping, pushing and/or pulling means, and that the packaging is magnetically fixed by the electromagnetic transport surface during transport. wherein the packaging designed magnetic or ferromagnetic at least in some sections is magnetically grasped and at least in some sections is pulled by means of an electromagnetic grasping, pushing and/or pulling means onto a transport area of an receiving/discharging unit, wherein the packaging after transport is pushed out of the transport area by means of the electromagnetic grasping, pushing and/or pulling means, characterized in, that the transport area used is one which has a flat electromagnetic transport surface, in or under which an electromagnetic device is arranged, that the packaging used is of magnetic or ferromagnetic design at least at packaging sections which come into contact with the electromagnetic means of the gripping, pushing or pulling means and with the electromagnetic device of the transport surface, that the packaging, which is of magnetic or ferromagnetic design at least in sections, is pulled completely onto the electromagnetic transport surface by the electromagnetic gripping, pushing and/or pulling means, and that the packaging is magnetically fixed by the electromagnetic transport surface during transport.
Method for determining an item of evaluation information from a reception signal received by a magnetic resonance apparatus , comprising: - generating a useful signal in a first frequency band (FB 1 ) , - generating a magnetic resonance excitation signal, the frequency portions of which lie within a second frequency band (FB 2 ), causing a magnetic resonance signal to be generated in the second frequency band by interaction with a patient , wherein the first frequency band (FB 1 ) lies at least partially, in particular completely, within the second frequency band (FB 2 ), so that the useful signal and the magnetic resonance signal are overlaid to form the reception signal, - receiving the reception signal by a receiving unit of the magnetic resonance apparatus , - determining an item of evaluation information characterising the useful signal from the reception signal , wherein the generation of the useful signal comprises: - generating a useful excitation signal , - changing the useful excitation signal into the useful signal by interaction with the patient , wherein, on the basis of the evaluation information, a movement of the patient is determined . - generating a useful signal in a first frequency band (FB 1 ) , - generating a magnetic resonance excitation signal, the frequency portions of which lie within a second frequency band (FB 2 ), causing a magnetic resonance signal to be generated in the second frequency band by interaction with a patient , wherein the first frequency band (FB 1 ) lies at least partially, in particular completely, within the second frequency band (FB 2 ), so that the useful signal and the magnetic resonance signal are overlaid to form the reception signal, - receiving the reception signal by a receiving unit of the magnetic resonance apparatus , - determining an item of evaluation information characterising the useful signal from the reception signal , - generating a useful excitation signal , - changing the useful excitation signal into the useful signal by interaction with the patient ,
Device for scanning measurement of the eye, consisting of an OCT arrangement with an anterior chamber measurement mode and a retina measurement mode, characterized in that an optical element which can be moved axially for switching between the modes is arranged between the x-y scanner and the eye , and in that the x-y scanner is illuminated convergently or divergently for switching between the modes.
A method for producing a compound of the formula Ar 2 -CF 2 -O-Ar 1 wherein Ar 1 is an aromatic ring group, cycloalkyl or alkyl, each optionally substituted, Ar 2 is (a) an optionally substituted aromatic ring group, (b) an optionally substituted cycloalkyl, or (c) an alkyl optionally substituted by one or more groups selected from cycloalkyl, fluoroalkyl, alkoxy, fluoroalkoxy, halogen, -SF 5 , and a boronic acid group, comprising reacting a compound of the formula Ar 2 -C(=S)-O-Ar 1 wherein Ar 1 and Ar 2 are as defined above, with a compound of the formula IF n ' wherein n is a natural number of 1-5. Ar 1 is an aromatic ring group, cycloalkyl or alkyl, each optionally substituted, Ar 2 is (a) an optionally substituted aromatic ring group, (b) an optionally substituted cycloalkyl, or (c) an alkyl optionally substituted by one or more groups selected from cycloalkyl, fluoroalkyl, alkoxy, fluoroalkoxy, halogen, -SF 5 , and a boronic acid group, comprising reacting a compound of the formula Ar 2 -C(=S)-O-Ar 1 wherein Ar 1 and Ar 2 are as defined above, with a compound of the formula IF n ' wherein n is a natural number of 1-5. (a) an optionally substituted aromatic ring group, (b) an optionally substituted cycloalkyl, or (c) an alkyl optionally substituted by one or more groups selected from cycloalkyl, fluoroalkyl, alkoxy, fluoroalkoxy, halogen, -SF 5 , and a boronic acid group, comprising reacting a compound of the formula Ar 2 -C(=S)-O-Ar 1 wherein Ar 1 and Ar 2 are as defined above, with a compound of the formula IF n ' wherein n is a natural number of 1-5.
A method for increasing the measurement accuracy in a particle measurement device characterized in that it comprises: - measuring light emitted by a first fluorescent particle and light emitted by a second fluorescent particle , where the measured light from the second fluorescent particle at least partially overlaps the measured light from the first fluorescent particle in an overlap region ; - determining a contribution of light from the first fluorescent particle in the overlap region , wherein determining the contribution of light from the first fluorescent particle includes calculating the expected distribution of the light based on known parameters and measured parameters; - determining a contribution of light from the second fluorescent particle in the overlap region , wherein determining the contribution of light from the second fluorescent particle includes calculating the expected distribution of the light based on the known parameters and measured parameters - subtracting the contribution of light from the second fluorescent particle from the contribution of light from the first fluorescent particle ; and - determining the intensity of light emitted by the first fluorescent particle wherein the peak of the first or second fluorescent particle and the slope of the respective particle are used to approximate the expected distribution of the respective particle or wherein the expected distribution of light of the first or second fluorescent particle is calculated based on the peak intensity of the respective particle and the known size of the respective particle. - measuring light emitted by a first fluorescent particle and light emitted by a second fluorescent particle , where the measured light from the second fluorescent particle at least partially overlaps the measured light from the first fluorescent particle in an overlap region ; - determining a contribution of light from the first fluorescent particle in the overlap region , wherein determining the contribution of light from the first fluorescent particle includes calculating the expected distribution of the light based on known parameters and measured parameters; - determining a contribution of light from the second fluorescent particle in the overlap region , wherein determining the contribution of light from the second fluorescent particle includes calculating the expected distribution of the light based on the known parameters and measured parameters - subtracting the contribution of light from the second fluorescent particle from the contribution of light from the first fluorescent particle ; and - determining the intensity of light emitted by the first fluorescent particle
A method of preparing a chromium-based catalyst for the polymerization of an olefin into a polyolefin, the method comprising: contacting a chromium-based catalyst with a reducing agent in a solvent to lower an oxidation state of at least some chromium in the chromium-based catalyst to give a reduced chromium-based catalyst, wherein the chromium-based catalyst comprises a chromium oxide catalyst; drying the reduced chromium-based catalyst at a drying line-out temperature; and adjusting the drying line-out temperature to change the flow index response of the reduced chromium-based catalyst. contacting a chromium-based catalyst with a reducing agent in a solvent to lower an oxidation state of at least some chromium in the chromium-based catalyst to give a reduced chromium-based catalyst, wherein the chromium-based catalyst comprises a chromium oxide catalyst; drying the reduced chromium-based catalyst at a drying line-out temperature; and adjusting the drying line-out temperature to change the flow index response of the reduced chromium-based catalyst.