mhurhangee/patent-ind-claim-en huggingface dataset:
Method for cooking food in the cooking chamber of a cooking appliance , the cooking appliance emitting microwaves for the dielectric heating of the food in the cooking chamber and the food being located in a container during the cooking process, which container comprises a container shell , a container bottom and optionally a container lid , characterised by the use of a container in which at least the container shell is made at least predominantly of ice, and characterised in that the container shell includes a volume (V) which is not made of ice and in which the foodstuff can be freely movably stored.
A process for the preparation of limonene-4-ol of formula (II) wherein terpinolene epoxide of formula (I) is subjected to a selective epoxide ring opening isomerization in the presence of a sulfonic acid and an organic base as a catalyst.
A pharmaceutical composition comprising (i) the analgesic antipyrine and (ii) the anesthetic benzocaine, for use in the treatment of post-tonsillectomy pharyngeal or oropharyngeal pain, post-adenoidectomy pharyngeal or oropharyngeal pain, asthma, obesity, neurogenic cough, globus hystericus, spasmodic dysphonia, laryngeal pain and/or gastroesophageal reflux disease, wherein the pharmaceutical composition is for topical administration into an ear canal of the subject, and wherein the subject does not have an ear infection or ear pain associated with an ear infection.
A method performed by a wireless device (211, 311, 400, 500a-b, 700, 800a-b, 1000, 1411, 2200) in a wireless communications system , comprising: obtaining selection criteria that is predefined or configured as being the criteria by which both the wireless device and a network node (201, 301, 1100, 1200a-b, 1401, 1500, 1600a-b, 2100) or another wireless device selects one of multiple activated semi-persistent configurations assigned to the wireless device responsive to determining that the multiple configurations have granted a same radio resource ; selecting one of the multiple configurations based on the selection criteria; and transmitting or receiving on that radio resource in accordance with the selected configuration, wherein the selection criteria is based on at least one of: an index that identifies each configuration; a size of a grant of radio resources for each configuration; and a priority of each configuration. obtaining selection criteria that is predefined or configured as being the criteria by which both the wireless device and a network node (201, 301, 1100, 1200a-b, 1401, 1500, 1600a-b, 2100) or another wireless device selects one of multiple activated semi-persistent configurations assigned to the wireless device responsive to determining that the multiple configurations have granted a same radio resource ; selecting one of the multiple configurations based on the selection criteria; and transmitting or receiving on that radio resource in accordance with the selected configuration, wherein the selection criteria is based on at least one of: an index that identifies each configuration; a size of a grant of radio resources for each configuration; and a priority of each configuration. an index that identifies each configuration; a size of a grant of radio resources for each configuration; and a priority of each configuration.
A data storage method for a distributed database, comprising: Receiving (S101), by a first node, a record insertion request, wherein the record insertion request carries a first record; determining (S102), by the first node according to a mapping relationship between a foreign key identifier and a storage node, a first storage node on which a first associated record that corresponds to the first record is located, wherein a primary key identifier of the first associated record is the same as a foreign key identifier of the first record; and inserting (S103), by the first node, the first record to a second node in the first storage nodes. Receiving (S101), by a first node, a record insertion request, wherein the record insertion request carries a first record; determining (S102), by the first node according to a mapping relationship between a foreign key identifier and a storage node, a first storage node on which a first associated record that corresponds to the first record is located, wherein a primary key identifier of the first associated record is the same as a foreign key identifier of the first record; and inserting (S103), by the first node, the first record to a second node in the first storage nodes.
A battery diagnosis device comprising: a voltage measurement unit configured to measure a voltage of a battery cell; a fitting value calculation unit configured to calculate a fitting voltage of the battery cell in a rest section after charging and discharging of the battery cell; and a diagnosis unit configured to diagnose abnormality of the battery cell by comparing the measured voltage measured by the voltage measurement unit and the fitting voltage calculated by the fitting value calculation unit, with respect to the rest section of the battery cell. a voltage measurement unit configured to measure a voltage of a battery cell; a fitting value calculation unit configured to calculate a fitting voltage of the battery cell in a rest section after charging and discharging of the battery cell; and a diagnosis unit configured to diagnose abnormality of the battery cell by comparing the measured voltage measured by the voltage measurement unit and the fitting voltage calculated by the fitting value calculation unit, with respect to the rest section of the battery cell.
An dilatable balloon catheter, comprising: a catheter and a guide wire inserted and disposed in the inside of the catheter , an operation portion is fixedly connected to one end of the catheter , a balloon which wraps the outer side of the catheter remote from the operation portion , the lumen of the catheter and the inner cavity of the balloon are connected by an communication structure provided on the catheter , wherein the guide wire includes a first guide wire and a second guide wire which are separated from each other, the rear end of the first guide wire is connected to insertion-extraction structure of the operation portion , the second guide wire is fixed to the other end of the catheter by a fixing process; wherein the tube body area of the catheter in the balloon is separated from each other into a first tube body and a second tube body , the rear end of the first tube body is fixedly connected to the operation portion , the outer wall of the second tube body is fixedly connected to the balloon , the cross section between the first tube body and the second tube body oppositely forms a communication passage , which serves as an communication structure to connect the lumen of the catheter and the inner cavity of the balloon , the insertion depth of the second guide wire inserted into the first tube body is greater than the separation distance between the first tube body and the second tube body when the balloon is inflated.
A method of suppressing stimulated Brillouin scattering while transmitting an optical signal through optical fiber, comprising the steps of: emitting a light beam from a light source , the method being characterized by : during said emitting step, directly modulating the light source with a high frequency signal that is dithered by modulating the frequency of the high frequency signal based on one or more low frequency dithering signals of a frequency or frequencies lower than that of the high frequency signal; amplitude modulating the light beam externally of the light source with an RF information-carrying signal , the high frequency signal being at least twice a highest frequency of the RF information-carrying signal; and coupling the light beam modulated with the RF information-carrying signal into the optical fiber, wherein the light source is a laser, wherein the high frequency signal is generated by a voltage controlled oscillator, VCO, and wherein dithering the high frequency signal with the low frequency dithering signal is accomplished by modulating a bias voltage of the VCO . emitting a light beam from a light source , the method being characterized by : during said emitting step, directly modulating the light source with a high frequency signal that is dithered by modulating the frequency of the high frequency signal based on one or more low frequency dithering signals of a frequency or frequencies lower than that of the high frequency signal; amplitude modulating the light beam externally of the light source with an RF information-carrying signal , the high frequency signal being at least twice a highest frequency of the RF information-carrying signal; and coupling the light beam modulated with the RF information-carrying signal into the optical fiber, wherein the light source is a laser, wherein the high frequency signal is generated by a voltage controlled oscillator, VCO, and wherein dithering the high frequency signal with the low frequency dithering signal is accomplished by modulating a bias voltage of the VCO . during said emitting step, directly modulating the light source with a high frequency signal that is dithered by modulating the frequency of the high frequency signal based on one or more low frequency dithering signals of a frequency or frequencies lower than that of the high frequency signal; amplitude modulating the light beam externally of the light source with an RF information-carrying signal , the high frequency signal being at least twice a highest frequency of the RF information-carrying signal; and coupling the light beam modulated with the RF information-carrying signal into the optical fiber, wherein the light source is a laser, wherein the high frequency signal is generated by a voltage controlled oscillator, VCO, and wherein dithering the high frequency signal with the low frequency dithering signal is accomplished by modulating a bias voltage of the VCO .
A method for producing a plastic lens comprising: a step of curing and molding a polymerizable composition for an optical material in a lens casting mold to prepare a plastic lens, wherein the polymerizable composition comprises tolylene diisocyanate, hexamethylene diisocyanate, and one or more polythiol compounds selected from the group consisting of 4-mercaptomethyl-1,8-dimercapto-3,6-dithiaoctane, 4,8-, 4,7- or 5,7-dimercaptomethyl-1,11-dimercapto-3,6, 9-trithiaundecane, pentaerythritol tetrakismercaptoacetate, pentaerythritol tetrakismercaptopropionate, 2,5-bis(mercaptomethyl)-1,4-dithiane, bis(mercaptoethyl)sulfide, 1,1,3,3-tetrakis(mercaptomethylthio)propane, 4,6-bis(mercaptomethylthio)-1,3-dithiane and 2-(2,2-bis(mercaptomethylthio)ethyl)-1,3-dithietane. a step of curing and molding a polymerizable composition for an optical material in a lens casting mold to prepare a plastic lens, wherein the polymerizable composition comprises tolylene diisocyanate, hexamethylene diisocyanate, and one or more polythiol compounds selected from the group consisting of 4-mercaptomethyl-1,8-dimercapto-3,6-dithiaoctane, 4,8-, 4,7- or 5,7-dimercaptomethyl-1,11-dimercapto-3,6, 9-trithiaundecane, pentaerythritol tetrakismercaptoacetate, pentaerythritol tetrakismercaptopropionate, 2,5-bis(mercaptomethyl)-1,4-dithiane, bis(mercaptoethyl)sulfide, 1,1,3,3-tetrakis(mercaptomethylthio)propane, 4,6-bis(mercaptomethylthio)-1,3-dithiane and 2-(2,2-bis(mercaptomethylthio)ethyl)-1,3-dithietane.
A shock wave device , comprising: an outer covering ; an inner member , wherein the outer covering and the inner member are connected at a distal end of the device , and wherein a volume between the outer covering and the inner member is fillable with a conductive fluid; a first conductive wire and a second conductive wire extending along the length of the device within the outer covering and ending proximate to the distal end of the device , wherein the lengths of the first and second conductive wires are insulated and wherein there is an uninsulated portion on each of the first and second conductive wires at a distal end face thereof; characterised by a conductive emitter band adjacent to distal end faces of the first and second conductive wires and forming a first spark gap between the distal end face of the first conductive wire and the conductive emitter band and a second spark gap between the distal end face of the second conductive wire and the conductive emitter band , wherein when the volume is filled with the conductive fluid and a high voltage pulse is applied across the first and second conductive wires , first and second shock waves will be initiated from the first and second spark gaps. an outer covering ; an inner member , wherein the outer covering and the inner member are connected at a distal end of the device , and wherein a volume between the outer covering and the inner member is fillable with a conductive fluid; a first conductive wire and a second conductive wire extending along the length of the device within the outer covering and ending proximate to the distal end of the device , wherein the lengths of the first and second conductive wires are insulated and wherein there is an uninsulated portion on each of the first and second conductive wires at a distal end face thereof; characterised by a conductive emitter band adjacent to distal end faces of the first and second conductive wires and forming a first spark gap between the distal end face of the first conductive wire and the conductive emitter band and a second spark gap between the distal end face of the second conductive wire and the conductive emitter band , wherein when the volume is filled with the conductive fluid and a high voltage pulse is applied across the first and second conductive wires , first and second shock waves will be initiated from the first and second spark gaps.
A gas turbine engine for an aircraft, comprising: a high-pressure (HP) spool comprising an HP compressor and a first electric machine driven by an HP turbine , the first electric machine having a first maximum output power; a low-pressure (LP) spool comprising an LP compressor and a second electric machine driven by an LP turbine , the second electric machine having a second maximum output power; characterized in that it further comprises an engine controller configured to identify a condition to the effect that the LP turbine is operating in an unchoked regime, and, in response to an electrical power demand being between zero and the first maximum output power, only extracting electrical power from the first electric machine to meet the electrical power demand. a high-pressure (HP) spool comprising an HP compressor and a first electric machine driven by an HP turbine , the first electric machine having a first maximum output power; a low-pressure (LP) spool comprising an LP compressor and a second electric machine driven by an LP turbine , the second electric machine having a second maximum output power; characterized in that it further comprises an engine controller configured to identify a condition to the effect that the LP turbine is operating in an unchoked regime, and, in response to an electrical power demand being between zero and the first maximum output power, only extracting electrical power from the first electric machine to meet the electrical power demand.
A smart home controller refrigerator , comprising: one or more storage spaces; one or more doors for controlling an opening and closing of the one or more storage spaces, wherein one of the doors comprises an interface unit that is configured to control an operation of the smart home controller refrigerator ; and a control unit comprising a control protocol communication unit configured to receive control information for controlling a home appliance in home from an external server or a portable device , wherein the control unit further comprises: a storage unit configured to store the control information; an operation protocol communication unit configured to generate an operation signal calculated from the control information; and a signal transmitting unit (341, 342, ..., 349) configured to transmit the operation signal, corresponding to an operation protocol, to the home appliance ; characterized in that an infrared light emitting unit and an infrared light receiving unit that are configured to sense an external touch are arranged in the interface unit , and the infrared light emitting unit is the signal transmitting unit and is configured to transmit an infrared signal for controlling the home appliance according to the operation protocol, and wherein the operation protocol comprises infrared communication. one or more storage spaces; one or more doors for controlling an opening and closing of the one or more storage spaces, wherein one of the doors comprises an interface unit that is configured to control an operation of the smart home controller refrigerator ; and a control unit comprising a control protocol communication unit configured to receive control information for controlling a home appliance in home from an external server or a portable device , wherein the control unit further comprises: a storage unit configured to store the control information; an operation protocol communication unit configured to generate an operation signal calculated from the control information; and a signal transmitting unit (341, 342, ..., 349) configured to transmit the operation signal, corresponding to an operation protocol, to the home appliance ; characterized in that an infrared light emitting unit and an infrared light receiving unit that are configured to sense an external touch are arranged in the interface unit , and the infrared light emitting unit is the signal transmitting unit and is configured to transmit an infrared signal for controlling the home appliance according to the operation protocol, and wherein the operation protocol comprises infrared communication.
A subterranean characterization and fluid sampling device for analyzing a fluid from a subterranean formation, comprising: a controller ; a tool body including a fluid testing module configured to receive a sample of the fluid from the subterranean formation and a permanent magnet generating a static magnetic field (B 0 ); and a probing module coupled to the tool body and separate from the permanent magnet, and configured to withdraw the fluid from the formation and deliver the fluid to the testing module, wherein the probing module includes an antenna , wherein the antenna is electrically coupled to the controller and generates a radio frequency magnetic field (B 1 ) in response to a signal from the controller the device characterised in that the probing module comprises a soft magnetic material to shape the magnetic field (B 0 ). a controller ; a tool body including a fluid testing module configured to receive a sample of the fluid from the subterranean formation and a permanent magnet generating a static magnetic field (B 0 ); and a probing module coupled to the tool body and separate from the permanent magnet, and configured to withdraw the fluid from the formation and deliver the fluid to the testing module, wherein the probing module includes an antenna , wherein the antenna is electrically coupled to the controller and generates a radio frequency magnetic field (B 1 ) in response to a signal from the controller the device characterised in that the probing module comprises a soft magnetic material to shape the magnetic field (B 0 ).
A power control unit mounted on a vehicle for controlling electric power used for driving the vehicle, said power control unit comprising: a casing including a top where an opening is formed, a terminal block placed in said casing , and arranged opposite to said opening , and a substrate placed in said casing , and on which an electronic component is mounted, said terminal block having a first wall arranged between said substrate and said opening , and extending towards said top at a circumference of an aperture of said opening , and characterized in that said casing further includes a rib-like section arranged between said substrate and said opening , and protruding from an inner edge of said top defining said opening towards inside said casing , said first wall extending up to a position overlapping with said rib-like section in a height direction. a casing including a top where an opening is formed, a terminal block placed in said casing , and arranged opposite to said opening , and a substrate placed in said casing , and on which an electronic component is mounted, said terminal block having a first wall arranged between said substrate and said opening , and extending towards said top at a circumference of an aperture of said opening , and
A system comprising - a distribution grid for a fuel, - combustion engines , which are coupled with the distribution grid and are configured to combust the fuel, and - a computer system comprising data connections to the combustion engines and a data storage device , wherein the computer system is configured to receive engine operation parameters stemming from an operation of the combustion engines at a first time and/or during a first time period via the data connections and geographical data of the combustion engines are stored in the data storage device , wherein - the computer system has a processor which is configured to compute a prediction for at least one characteristic parameter of the fuel at a second time and/or during a second time period later than the first time and/or the first time period and with respect to a geographical location, - the computation of the prediction being based on the geographical data and the engine operation parameters of the combustion engines , - there is at least one further combustion engine present which is coupled to the distribution grid and configured to combust the fuel, and - set points for a closed and/or open loop control of the at least one further combustion engine and/or a time of operation of the further combustion engine are based on the prediction of the at least one characteristic parameter of the fuel for the second time and/or the second time period with respect to the geographical location of the at least one further combustion engine . - a distribution grid for a fuel, - combustion engines , which are coupled with the distribution grid and are configured to combust the fuel, and - a computer system comprising data connections to the combustion engines and a data storage device , wherein the computer system is configured to receive engine operation parameters stemming from an operation of the combustion engines at a first time and/or during a first time period via the data connections and geographical data of the combustion engines are stored in the data storage device , - the computer system has a processor which is configured to compute a prediction for at least one characteristic parameter of the fuel at a second time and/or during a second time period later than the first time and/or the first time period and with respect to a geographical location, - the computation of the prediction being based on the geographical data and the engine operation parameters of the combustion engines , - there is at least one further combustion engine present which is coupled to the distribution grid and configured to combust the fuel, and - set points for a closed and/or open loop control of the at least one further combustion engine and/or a time of operation of the further combustion engine are based on the prediction of the at least one characteristic parameter of the fuel for the second time and/or the second time period with respect to the geographical location of the at least one further combustion engine .
A curable mixture for use in impregnation of paper bushings comprising (i) a resin mixture comprising a bisphenol-A-diglycidylether (BADGE) and a bisphenol-F-diglycidylether (BFDGE), (ii) methyltetrahydrophthalic anhydride (MTHPA) as hardener, and (iii) an accelerator selected from N,N,N'-trimethyl-N'-hydroxyethyl-bisaminoethylether, N-(3-dimethylaminopropyl)-N,N-diisopropanolamine, N,N-bis(3-dimethylaminopropyl)-N-isopropanolamine, 2-(2-dimethylaminoethoxy)ethanol, N,N,N'-trimethylaminoethyl-ethanolamine, N,N-dimethylethanolamine, or combinations thereof.