mhurhangee/patent-ind-claim-en huggingface dataset:
A method of controlling an induction heating device , the method comprising: determining a driving scheme and duty cycle of a first working coil (WC1) according to a required power value for the first working coil; determining a driving scheme and duty cycle of a second working coil (WC2) according to a required power value for the second working coil; determining a driving start time of the first working coil and a driving start time of the second working coil based on the driving scheme of the first working coil, the driving scheme of the second working coil, and a predetermined driving period, characterised by determining an eccentricity determination period of the first working coil and an eccentricity determination period of the second working coil based on the driving scheme of the first working coil, the driving scheme of the second working coil, the driving period, the duty cycle of the first working coil, and the duty cycle of the second working coil; driving each of the first working coil and the second working coil according to the driving scheme and the driving start times; determining eccentricity of a vessel placed on the first working coil according to the eccentricity determination period of the first working coil; and determining eccentricity of a vessel placed on the second working coil according to the eccentricity determination period of the second working coil. determining a driving scheme and duty cycle of a first working coil (WC1) according to a required power value for the first working coil; determining a driving scheme and duty cycle of a second working coil (WC2) according to a required power value for the second working coil; determining a driving start time of the first working coil and a driving start time of the second working coil based on the driving scheme of the first working coil, the driving scheme of the second working coil, and a predetermined driving period, characterised by determining an eccentricity determination period of the first working coil and an eccentricity determination period of the second working coil based on the driving scheme of the first working coil, the driving scheme of the second working coil, the driving period, the duty cycle of the first working coil, and the duty cycle of the second working coil; driving each of the first working coil and the second working coil according to the driving scheme and the driving start times; determining eccentricity of a vessel placed on the first working coil according to the eccentricity determination period of the first working coil; and determining eccentricity of a vessel placed on the second working coil according to the eccentricity determination period of the second working coil.
A pharmaceutical composition for use in a method of preventing or treating cancer-related fatigue, the composition containing a ginseng extract prepared by comprising: (a) inoculating an Aspergillus niger strain into a medium containing a ginseng powder and bran; (b) culturing the strain in step (a); (c) purifying the culture in step (b) through an ultrafiltration membrane; (d) separating an enzyme from the purified material in step (c); (e) adding the enzyme in step (d) to a ginseng powder, a red ginseng powder, a ginseng extract, or a red ginseng extract; (f) fermenting the material after the addition in step (e); (g) separating the fermented material in step (f) to obtain a supernatant; (h) concentrating the supernatant in step (g); (i) allowing the concentrated material in step (h) to react with at least one organic acid selected from the group consisting of acetic acid, lactic acid, citric acid, malic acid, and tartaric acid; and (j) neutralizing, filtering, purifying, concentrating, and drying the reacted material in step (i). (a) inoculating an Aspergillus niger strain into a medium containing a ginseng powder and bran; (b) culturing the strain in step (a); (c) purifying the culture in step (b) through an ultrafiltration membrane; (d) separating an enzyme from the purified material in step (c); (e) adding the enzyme in step (d) to a ginseng powder, a red ginseng powder, a ginseng extract, or a red ginseng extract; (f) fermenting the material after the addition in step (e); (g) separating the fermented material in step (f) to obtain a supernatant; (h) concentrating the supernatant in step (g); (i) allowing the concentrated material in step (h) to react with at least one organic acid selected from the group consisting of acetic acid, lactic acid, citric acid, malic acid, and tartaric acid; and (j) neutralizing, filtering, purifying, concentrating, and drying the reacted material in step (i).
A back support for pedal-driven devices with a holder for attachment to a device and an abutment part arranged thereon for supporting a person who is operating the device, wherein the abutment part is hinged with the holder and has several abutment bodies and a bracket which connects the abutment bodies with each other, wherein at least one abutment body is a ball or a roller , and connected with the bracket so that it can rotate around an abutment body axis , characterized in that the bracket is hinged with the holder .
A capacitor comprising a first electrode ; a second electrode ; and a solid multilayer structure disposed between said first and second electrodes, wherein the solid multilayer structure is in contact with said first and second electrodes and comprises layers disposed parallel to said electrodes, wherein the solid multilayer structure has a sequence of layers (A-B) m -A, wherein A is an insulating layer which has a breakdown voltage of at least about 0.05 volts (V) per nanometer (nm), and B is a polarization layer , and m is a number greater than or equal to 1, characterised in that B is a polarization layer comprising a colloidal composite with a micro-dispersion of electro-conductive nano-particles in an insulator matrix and B has dielectric permittivity of at least about 100. a first electrode ; a second electrode ; and a solid multilayer structure disposed between said first and second electrodes, wherein the solid multilayer structure is in contact with said first and second electrodes and comprises layers disposed parallel to said electrodes, wherein the solid multilayer structure has a sequence of layers (A-B) m -A, wherein A is an insulating layer which has a breakdown voltage of at least about 0.05 volts (V) per nanometer (nm), and B is a polarization layer , and m is a number greater than or equal to 1, characterised in that B is a polarization layer comprising a colloidal composite with a micro-dispersion of electro-conductive nano-particles in an insulator matrix and B has dielectric permittivity of at least about 100.
A method performed by a wireless device , wherein the wireless device is configured with access information comprising Random Access Channel configuration and separated system information associated with at least one of the wireless device and one or more wireless communication networks to which the wireless device is connectable, the method comprising: - determining a device hash code based on the configured system information in the wireless device, - transmitting a random access preamble to the network node, the method characterized in comprising: - receiving a random access response from the network node coded using a network hash code associated with configured system information in the network node, - attempting to decode the received random access response using the device hash code, the method comprising when the attempt to decode fails: - determining that the configured system information in the wireless device needs to be updated. - determining a device hash code based on the configured system information in the wireless device, - transmitting a random access preamble to the network node, the method characterized in comprising: - receiving a random access response from the network node coded using a network hash code associated with configured system information in the network node, - attempting to decode the received random access response using the device hash code, the method comprising when the attempt to decode fails: - determining that the configured system information in the wireless device needs to be updated. - receiving a random access response from the network node coded using a network hash code associated with configured system information in the network node, - attempting to decode the received random access response using the device hash code, - determining that the configured system information in the wireless device needs to be updated.
A method for coating at least a part of at least one body , the method comprising, through operation of at least one processor : determining a respective resulting coating layer based on simulating moving the respective body at least partially through a coating fluid of a dipping bath along different trajectories; determining a first trajectory out of the different simulated trajectories fulfilling one or more pre-defined conditions; and causing at least one drive component for moving the respective body to move the respective body at least partially through the coating fluid of the dipping bath along the first trajectory . determining a respective resulting coating layer based on simulating moving the respective body at least partially through a coating fluid of a dipping bath along different trajectories; determining a first trajectory out of the different simulated trajectories fulfilling one or more pre-defined conditions; and causing at least one drive component for moving the respective body to move the respective body at least partially through the coating fluid of the dipping bath along the first trajectory .
A flexible display device comprising: a display part (DM) including: a first flat portion (EP1); a second flat portion (EP2) spaced apart from the first flat portion (EP1) in a first direction; and a folding portion (FP) disposed between the first flat portion (EP1) and the second flat portion (EP2); a support module (SM) disposed under the display part (DM) and including a lattice portion (LP) and a shape holding portion (SHP), and a boundary hole (BHL1, BHL2) defined in the lattice portion (LP), wherein a plurality of holes (HL) extending in a second direction intersecting the first direction are defined in the lattice portion (LP), the shape holding portion (SHP) is configured to maintain a shape of the support module (SM) and is adjacent to the lattice portion (LP) in the second direction intersecting the first direction and the lattice portion (LP) and the shape holding portion (SHP) overlap the folding portion (FP), the plurality of holes (HL) defined in the lattice portion (LP) include a plurality of holes (HL) adjacent to the shape holding portion (SHP), and the boundary hole (BHL1, BHL2) extends in a direction perpendicular to a direction along which the plurality of holes (HL) extend and is connected to the plurality of holes (HL) adjacent to the shape holding portion (SHP). a display part (DM) including: a first flat portion (EP1); a second flat portion (EP2) spaced apart from the first flat portion (EP1) in a first direction; and a folding portion (FP) disposed between the first flat portion (EP1) and the second flat portion (EP2); a first flat portion (EP1); a second flat portion (EP2) spaced apart from the first flat portion (EP1) in a first direction; and a folding portion (FP) disposed between the first flat portion (EP1) and the second flat portion (EP2); a support module (SM) disposed under the display part (DM) and including a lattice portion (LP) and a shape holding portion (SHP), and a boundary hole (BHL1, BHL2) defined in the lattice portion (LP), wherein a plurality of holes (HL) extending in a second direction intersecting the first direction are defined in the lattice portion (LP), the shape holding portion (SHP) is configured to maintain a shape of the support module (SM) and is adjacent to the lattice portion (LP) in the second direction intersecting the first direction and the lattice portion (LP) and the shape holding portion (SHP) overlap the folding portion (FP), the plurality of holes (HL) defined in the lattice portion (LP) include a plurality of holes (HL) adjacent to the shape holding portion (SHP), and the boundary hole (BHL1, BHL2) extends in a direction perpendicular to a direction along which the plurality of holes (HL) extend and is connected to the plurality of holes (HL) adjacent to the shape holding portion (SHP).
Lighting arrangement, including - at least a first and a second LED lighting element arranged next to each other on a carrier surface , said first and second LED lighting elements being arranged at a distance forming a gap between said first and second LED lighting elements , wherein - at least said first LED lighting element comprises at least one spacer element projecting into a direction at least substantially in parallel to said carrier surface extending over the gap, - said second LED lighting element being arranged in contact with said spacer element such that said second LED lighting element is arranged aligned relative to said first LED lighting element , said spacer element having, at least in a portion thereof being in contact with said second LED lighting element , a width which is less than 20% of a width of said first LED lighting element , and - said spacer element is formed integrally with an optically active part of said first LED lighting element , said optically active part emitting light during operation of said first LED lighting element . - at least a first and a second LED lighting element arranged next to each other on a carrier surface , said first and second LED lighting elements being arranged at a distance forming a gap between said first and second LED lighting elements , wherein - at least said first LED lighting element comprises at least one spacer element projecting into a direction at least substantially in parallel to said carrier surface extending over the gap, - said second LED lighting element being arranged in contact with said spacer element such that said second LED lighting element is arranged aligned relative to said first LED lighting element , said spacer element having, at least in a portion thereof being in contact with said second LED lighting element , a width which is less than 20% of a width of said first LED lighting element , and - said spacer element is formed integrally with an optically active part of said first LED lighting element , said optically active part emitting light during operation of said first LED lighting element .
A shaft bearing assembly having a shaft supported in a bearing housing , comprising a pressure reduction device for generating an underpressure inside the bearing housing , characterized in that the pressure reduction device is operated by employing oil.
A gas delivery apparatus configured for use with a mechanical ventilator having an atmospheric inlet for drawing in atmospheric gas, the gas delivery apparatus comprising: a connecting device configured to connect to an oxygen supply and an air supply and to deliver mixed air and oxygen gas to the atmospheric inlet of the mechanical ventilator, the connecting device further including a user control for adjusting a fraction of oxygen in the mixed air and oxygen gas; wherein the connecting device comprises a reservoir configured to hold a volume of the mixed air and oxygen gas; and wherein the reservoir is connected with a flow path of the mixed air and oxygen gas to the atmospheric inlet of the mechanical ventilator , and the reservoir is open to atmosphere. a connecting device configured to connect to an oxygen supply and an air supply and to deliver mixed air and oxygen gas to the atmospheric inlet of the mechanical ventilator, the connecting device further including a user control for adjusting a fraction of oxygen in the mixed air and oxygen gas; wherein the connecting device comprises a reservoir configured to hold a volume of the mixed air and oxygen gas; and wherein the reservoir is connected with a flow path of the mixed air and oxygen gas to the atmospheric inlet of the mechanical ventilator , and the reservoir is open to atmosphere.
Method for processing poultry parts moving in succession along a path of conveyance, providing a conveyor arranged to convey a succession of poultry parts along the path of conveyance downstream of a loading area, loading the poultry parts on the conveyor in the loading area, while operating the conveyor to convey the poultry parts in succession, providing a transfer means in the path of conveyance downstream of the loading area, operating the transfer means to divide the succession of poultry parts into at least two parallel streams, characterized by performing at least two processing steps in a side-by-side arrangement at a location downstream along the path of conveyance coinciding with the at least two parallel streams by either at least one single processing unit capable of processing at least two side-by-side poultry parts in the at least two parallel streams or at least two identical processing units in a side-by-side arrangement, and effective to process each poultry part, while the poultry parts are divided into the at least two parallel streams and distributed substantially equally over the at least two parallel streams.
A tray for an absorption column for preparing nitric acid, having gas passage openings distributed over the tray , and having at least one baffle for flow diversion of liquid flowing on the tray, it being possible for the tray to be fed with a liquid via at least one entry , wherein the tray has at least one entry , at least one separating weir , which separates the inflowing liquid into two streams, and at least two exits , or has at least two entries and at least one exit for the liquid, each stream flowing along a seperate flow path (7; 9) from the entry to an exit and heat transfer elements which are designed as cooling elements being disposed on the tray along the flow paths (7; 9) in each case so that the flow paths (7; 9) are designed so that the length of each flow path (7; 9) is substantially the same.
A method of detecting laser pulses having a predetermined pulse period by a multimode seeker , the method comprising: capturing image data, by the multimode seeker, during a search period, wherein the search period includes a plurality of search cycles; detecting, from the image data, at least one laser candidate; and tracking, by the multimode seeker , the at least one candidate laser during a track period; characterised in that a duration of each of the plurality of search cycle is equal to the predetermined pulse period plus a predetermined drift period; wherein capturing image data during the search period comprises: executing a plurality of search expose cycles at a predetermined duty cycle, each of the plurality of search expose cycles including a search expose pulse during which the image data is captured and a dark time during which the image data is not captured; wherein tracking, by the multimode seeker , the at least one candidate laser comprises: evaluating, by an image processor , the at least one candidate laser; and locking, by the multimode seeker, the at least one candidate laser as a tracked laser; and wherein detecting, from the image data, the at least one candidate laser comprises: performing, by an image processor , a peak-to-side-lobe analysis for the image data of each of the plurality of expose cycles; and determining the at least one candidate laser pulse based upon the peak-to-side-lobe analysis of the image data. capturing image data, by the multimode seeker, during a search period, wherein the search period includes a plurality of search cycles; detecting, from the image data, at least one laser candidate; and tracking, by the multimode seeker , the at least one candidate laser during a track period; characterised in that a duration of each of the plurality of search cycle is equal to the predetermined pulse period plus a predetermined drift period; wherein capturing image data during the search period comprises: executing a plurality of search expose cycles at a predetermined duty cycle, each of the plurality of search expose cycles including a search expose pulse during which the image data is captured and a dark time during which the image data is not captured; wherein tracking, by the multimode seeker , the at least one candidate laser comprises: evaluating, by an image processor , the at least one candidate laser; and locking, by the multimode seeker, the at least one candidate laser as a tracked laser; and wherein detecting, from the image data, the at least one candidate laser comprises: performing, by an image processor , a peak-to-side-lobe analysis for the image data of each of the plurality of expose cycles; and determining the at least one candidate laser pulse based upon the peak-to-side-lobe analysis of the image data. performing, by an image processor , a peak-to-side-lobe analysis for the image data of each of the plurality of expose cycles; and determining the at least one candidate laser pulse based upon the peak-to-side-lobe analysis of the image data.
A thermal interface material sheet to be disposed between a heat generating electrical component and a cooling device , the thermal interface material sheet comprising at least one thin film sensor and electrical conductors connected to the at least one thin film sensor for measuring a property related to the heat generating electrical component, characterized in that the at least one thin film sensor is physical vapour deposition (PVD) grown sensor.
A method for releasing mission critical data, MCData, communication among a first MCData user equipment, UE , a second MCData UE and a MCData server , the method comprising: determining, by the MCData server , whether to release a MCData communication, based on a release condition; transmitting, by the MCData server , a MCData release intent request message to the first MCData UE ; determining whether a MCData request for extension is received within a predetermined time from the first MCData UE ; determining, by the MCData server , whether to accept the MCData request for extension based on one or more policies, in response to receiving the MCData request for extension from the first MCData UE ; transmitting, by the MCData server , a MCData response message based on the determination on whether to accept the MCData request for extension to the first MCData UE ; and releasing the MCData communication when the MCData server did not accept the request for extension. determining, by the MCData server , whether to release a MCData communication, based on a release condition; transmitting, by the MCData server , a MCData release intent request message to the first MCData UE ; determining whether a MCData request for extension is received within a predetermined time from the first MCData UE ; determining, by the MCData server , whether to accept the MCData request for extension based on one or more policies, in response to receiving the MCData request for extension from the first MCData UE ; transmitting, by the MCData server , a MCData response message based on the determination on whether to accept the MCData request for extension to the first MCData UE ; and releasing the MCData communication when the MCData server did not accept the request for extension.
An isolated nucleic acid encoding aspartoacylase (ASPA) for use in a method of treating a neurodegenerative disease in a subject in need thereof, the method comprising administering to a cell of the subject an effective amount of the isolated nucleic acid, thereby expressing ASPA in a cell of the subject, wherein the neurodegenerative disease is Parkinson's disease.