mhurhangee/patent-ind-claim-en huggingface dataset:
A process the preparation of a polymeric material, characterized in that the process comprises or consists of the following steps: a. providing a suitable dissolved polymer, wherein the polymer is selected from the list consisting of the group of polyesters, for example polyethylene terephthalate (PET), the group of polyamides, for example poly(p-phenylene terephthalamide) (PPTA) and poly(m-phenylene isophthalamide) (PMPI), b. providing a suitable doping element, wherein the or at least one of the different doping elements comprises an iron alloy, preferably an iron oxide alloy, further preferably an alkaline earth iron oxide alloy, particularly preferably a SrFe 12 O 19 alloy, c. evaporating the doping element provided in step b) by means of suitable processes and introducing the evaporated doping element into the dissolved polymer provided in step a), and d. extruding the polymer material in the electric field. a. providing a suitable dissolved polymer, wherein the polymer is selected from the list consisting of the group of polyesters, for example polyethylene terephthalate (PET), the group of polyamides, for example poly(p-phenylene terephthalamide) (PPTA) and poly(m-phenylene isophthalamide) (PMPI), b. providing a suitable doping element, wherein the or at least one of the different doping elements comprises an iron alloy, preferably an iron oxide alloy, further preferably an alkaline earth iron oxide alloy, particularly preferably a SrFe 12 O 19 alloy, c. evaporating the doping element provided in step b) by means of suitable processes and introducing the evaporated doping element into the dissolved polymer provided in step a), and d. extruding the polymer material in the electric field.
A method for translating instructions for a processor, comprising: accessing a plurality of guest instructions that comprise multiple guest branch instructions; assembling the plurality of guest instructions into a guest instruction block; translating the guest instruction block into a corresponding native conversion block; storing the native conversion block into a native cache; storing a mapping of the guest instruction block to corresponding native conversion block in a conversion look aside buffer; upon a subsequent request for a guest instruction, indexing the conversion look aside buffer to determine whether a hit occurred, wherein the hit is determined to occur if the mapping indicates the guest instruction has a corresponding converted native instruction in the native cache; forwarding the converted native instruction for execution in response to a determination that the hit occurred, wherein the plurality of guest instructions concludes with a far branch instruction, wherein the far branch instruction comprises a target address outside of the guest instruction block; and checking for the corresponding converted native instruction in a system memory in response to a determination that the hit did not occur. accessing a plurality of guest instructions that comprise multiple guest branch instructions; assembling the plurality of guest instructions into a guest instruction block; translating the guest instruction block into a corresponding native conversion block; storing the native conversion block into a native cache; storing a mapping of the guest instruction block to corresponding native conversion block in a conversion look aside buffer; upon a subsequent request for a guest instruction, indexing the conversion look aside buffer to determine whether a hit occurred, wherein the hit is determined to occur if the mapping indicates the guest instruction has a corresponding converted native instruction in the native cache; forwarding the converted native instruction for execution in response to a determination that the hit occurred, wherein the plurality of guest instructions concludes with a far branch instruction, wherein the far branch instruction comprises a target address outside of the guest instruction block; and checking for the corresponding converted native instruction in a system memory in response to a determination that the hit did not occur.
A method of reducing or minimizing variations in harmonic content of current applied to a resonator of an oscillator circuit comprising an amplifier and the resonator , the method comprising: producing a bias signal (V b ) for the amplifier by performing automatic amplitude control of an output signal (V o , V + , V - ) of the oscillator circuit , the automatic amplitude control being conducted using a time-varying amplitude reference signal (V REF ); and deriving the time-varying amplitude reference signal from the bias signal using a Gm bias replica circuit that replicates at least one property of a Gm cell of the amplifier ; wherein the oscillator circuit and the Gm bias replica circuit are exposed to the same operating conditions.
A process for producing a resin block that contains a thermoplastic resin and inorganic particles, that does not contain any void whose length is not less than 1.0 mm, that has a thick portion of a thickness of at least not less than 5 mm, and that can be used as a material for producing a dental prosthetic through the milling work: by providing a thermoplastic resin composition that contains a thermoplastic resin having a fluidizing temperature in a range of 310 to 500° C and at least one kind of inorganic oxide particles selected from the group consisting of silica particles, silica composite particles of silica and other metal oxides, titania particles, and titania composite particles of titania and other metal oxides in an amount of 30 to 150 parts by mass per 100 parts by mass of the thermoplastic resin, and comprising the steps of: injecting and filling a melt of said thermoplastic resin composition in a cavity of an injection-molding machine that has a projection mechanism; exerting a pressure on the thermoplastic resin composition; pushing a projecting member into one side surface of the cavity filled with the thermoplastic resin composition over a contact area of not more than 50% on the basis of the area of the whole one side surface before the thermoplastic resin composition is completely solidified; and taking out the thermoplastic resin composition after it has been cooled down. injecting and filling a melt of said thermoplastic resin composition in a cavity of an injection-molding machine that has a projection mechanism; exerting a pressure on the thermoplastic resin composition; pushing a projecting member into one side surface of the cavity filled with the thermoplastic resin composition over a contact area of not more than 50% on the basis of the area of the whole one side surface before the thermoplastic resin composition is completely solidified; and taking out the thermoplastic resin composition after it has been cooled down.
A computer-implemented method for providing a software container element associated with peripheral device connection data that enables the software container element to have access to and communicate with each peripheral device of a plurality of predetermined peripheral devices, the method comprising the steps of: a resource manager receiving, from a module comprising first executable software that is executable on one or more processors of a computing device , first data indicative of at least one class of peripheral device connectable to the computing device , whereby each class is associated with a plurality of predetermined peripheral devices; providing a software container element that contains second executable software that is executable on said one or more processors of the computing device , the resource manager requesting the module to prepare each of the plurality of predetermined peripheral devices associated with each class for assignment to the software container element ; the resource manager receiving from the module respective peripheral device pathway data for each peripheral device in the class that is to be assigned to the software container element; and associating the software container element with peripheral device connection data, wherein the peripheral device connection data is representative of at least the respective peripheral device pathway data for each of the plurality of predetermined peripheral devices associated with each class to enable the software container element to have access to and communicate with each peripheral device of the plurality of predetermined peripheral devices associated with each class. a resource manager receiving, from a module comprising first executable software that is executable on one or more processors of a computing device , first data indicative of at least one class of peripheral device connectable to the computing device , whereby each class is associated with a plurality of predetermined peripheral devices; providing a software container element that contains second executable software that is executable on said one or more processors of the computing device , the resource manager requesting the module to prepare each of the plurality of predetermined peripheral devices associated with each class for assignment to the software container element ; the resource manager receiving from the module respective peripheral device pathway data for each peripheral device in the class that is to be assigned to the software container element; and associating the software container element with peripheral device connection data, wherein the peripheral device connection data is representative of at least the respective peripheral device pathway data for each of the plurality of predetermined peripheral devices associated with each class to enable the software container element to have access to and communicate with each peripheral device of the plurality of predetermined peripheral devices associated with each class.
A base for a food processing system , comprising: a housing configured to couple with a complementary container , the housing including a bottom surface ; at least one suction device mounted to the bottom surface , the at least one suction device being configured to adhere the base to an adjacent surface; and at least one release mechanism mounted to an outer surface of the housing and operably coupled to the at least one suction device , the release mechanism being movable between a first position and a second position to release the at least one suction device from the adjacent surface, characterized in that the at least one release mechanism includes a first release mechanism and a second release mechanism disposed at opposing sides of the base . a housing configured to couple with a complementary container , the housing including a bottom surface ; at least one suction device mounted to the bottom surface , the at least one suction device being configured to adhere the base to an adjacent surface; and at least one release mechanism mounted to an outer surface of the housing and operably coupled to the at least one suction device , the release mechanism being movable between a first position and a second position to release the at least one suction device from the adjacent surface, characterized in that the at least one release mechanism includes a first release mechanism and a second release mechanism disposed at opposing sides of the base .
Heat exchanger for cooling intake air (F1) with a coolant (F2), comprising: a first and a second front face as an inlet or outlet for the air (F1), respectively, and a shell between the first and the second front face , the shell having at least one coupling element along a circumferential line of the shell , the circumferential line being spaced apart from the first front face by a predetermined distance (d1), the shell having at least one port as an inlet or an outlet for the coolant (F2), the port being arranged at a distance from the first front face that is larger than the predetermined distance (d1), wherein the at least one coupling element is adapted to fixedly couple with at least one corresponding coupling element of an air inlet duct or air outlet duct , and wherein the shell comprises a tube arrangement or an internal duct system connected to the port for the coolant (F2) and adapted to guide the coolant (F2) into an insertion section of the shell , the insertion section being located between the first front face and the circumferential line , wherein a ratio of the predetermined distance (d1, d1') and a distance (d3, d3') between the first front face and the second front face is more than 5%, preferably more than 10%, even more preferably more than 20%. a first and a second front face as an inlet or outlet for the air (F1), respectively, and a shell between the first and the second front face , the shell having at least one coupling element along a circumferential line of the shell , the circumferential line being spaced apart from the first front face by a predetermined distance (d1), the shell having at least one port as an inlet or an outlet for the coolant (F2), the port being arranged at a distance from the first front face that is larger than the predetermined distance (d1), wherein the at least one coupling element is adapted to fixedly couple with at least one corresponding coupling element of an air inlet duct or air outlet duct , and wherein the shell comprises a tube arrangement or an internal duct system connected to the port for the coolant (F2) and adapted to guide the coolant (F2) into an insertion section of the shell , the insertion section being located between the first front face and the circumferential line , wherein a ratio of the predetermined distance (d1, d1') and a distance (d3, d3') between the first front face and the second front face is more than 5%, preferably more than 10%, even more preferably more than 20%.
An apparatus , comprising, at least one square wave AC voltage generator having a voltage and driving frequency; at least one resonant field exciter in communication with the square wave AC generator , the resonant field exciter having a rotary reference frame, a static reference frame, and a resonant circuit comprising in series a resonant capacitor and a rotary transformer with a variable leakage inductance comprising a magnetic core with a primary winding mounted on the static reference frame of the motor frame separated by a gap from a second magnetic core with a secondary winding, and the resonant field exciter is configured to operate in a resonant mode at a resonant frequency of at least 50 kHz; a controller device in communication with the square wave AC generator and the resonant field exciter and configured to measure the voltage and current into the resonant field exciter , track the resonance frequency, and adjust the driving frequency to substantially match the resonance frequency to maximize AC current transfer; and a rectifier in communication with the resonant field exciter and configured to convert the AC current to DC current before it goes into the rotor winding of a wound field synchronous machine . at least one square wave AC voltage generator having a voltage and driving frequency; at least one resonant field exciter in communication with the square wave AC generator , the resonant field exciter having a rotary reference frame, a static reference frame, and a resonant circuit comprising in series a resonant capacitor and a rotary transformer with a variable leakage inductance comprising a magnetic core with a primary winding mounted on the static reference frame of the motor frame separated by a gap from a second magnetic core with a secondary winding, and the resonant field exciter is configured to operate in a resonant mode at a resonant frequency of at least 50 kHz; a controller device in communication with the square wave AC generator and the resonant field exciter and configured to measure the voltage and current into the resonant field exciter , track the resonance frequency, and adjust the driving frequency to substantially match the resonance frequency to maximize AC current transfer; and a rectifier in communication with the resonant field exciter and configured to convert the AC current to DC current before it goes into the rotor winding of a wound field synchronous machine .
A shell mold sintering method, comprising the following steps: S1.producing a shell mold, wherein a carbon powder needs to be added during a shell mold production process; S2.dewaxing the produced shell mold, and then placing the mold into a sintering apparatus while ensuring there is adequate oxygen content allowing a full combustion reaction in a sintering furnace , increasing the temperature between 600°C and 800°C to a combustion temperature of shell mold wax, and keeping the temperature in the sintering furnace during 5 to 20 minutes until residual wax in the shell mold is completely burned off; S3.reducing oxygen content in the sintering furnace , and increasing the temperature to the sintering temperature of the shell mold; S4.keeping the temperature between 1200°C and 1400°C within the sintering furnace at the sintering temperature of the shell mold in a low-oxygen or oxygen-free environment during 30 to 180 minutes, until sintering of the shell mold is completed. S1.producing a shell mold, wherein a carbon powder needs to be added during a shell mold production process; S2.dewaxing the produced shell mold, and then placing the mold into a sintering apparatus while ensuring there is adequate oxygen content allowing a full combustion reaction in a sintering furnace , increasing the temperature between 600°C and 800°C to a combustion temperature of shell mold wax, and keeping the temperature in the sintering furnace during 5 to 20 minutes until residual wax in the shell mold is completely burned off; S3.reducing oxygen content in the sintering furnace , and increasing the temperature to the sintering temperature of the shell mold; S4.keeping the temperature between 1200°C and 1400°C within the sintering furnace at the sintering temperature of the shell mold in a low-oxygen or oxygen-free environment during 30 to 180 minutes, until sintering of the shell mold is completed.
A vehicle control apparatus , comprising: a control unit configured for switching operation modes of a plurality of driving mechanisms at different timings in accordance with an operation mode switching trigger of a vehicle ,and a determination unit configured for determining, in accordance with the switching trigger for switching the operation mode of the vehicle from a first mode to a second mode, switching timings of switching the operation modes of the plurality of driving mechanisms from the first mode to the second mode characterized in that the vehicle control apparatus comprises an identification unit configured for performing individual identification of a driver, the determination unit determining the switching timings of the operation modes of the plurality of driving mechanisms in accordance with a result of the individual identification of the driver. a control unit configured for switching operation modes of a plurality of driving mechanisms at different timings in accordance with an operation mode switching trigger of a vehicle ,and a determination unit configured for determining, in accordance with the switching trigger for switching the operation mode of the vehicle from a first mode to a second mode, switching timings of switching the operation modes of the plurality of driving mechanisms from the first mode to the second mode characterized in that the vehicle control apparatus comprises an identification unit configured for performing individual identification of a driver, the determination unit determining the switching timings of the operation modes of the plurality of driving mechanisms in accordance with a result of the individual identification of the driver.
Polymer blend, comprising or consisting of: (A) a first polymer component, being a copolymer having a substantially random, partially blocky structure and selected from poly[(L-lactide)- co -( ε -caprolactone)] and poly[(D-lactide)- co -( ε -caprolactone)], wherein the first polymer component (A) has a dyad ratio of lactide-lactide dyads (LA-LA) to lactide- ε- caprolactone dyads (LA-CL) of at least 2.5:1, as determined by 1 H-NMR, and (B) a second polymer component different from the first polymer component (A) selected from poly(L-lactide), poly(D-lactide), poly[(L-lactide)- co -( ε -caprolactone)] and poly[(D-lactide)- co -( ε -caprolactone)], wherein the first and second polymer components (A) and (B) are selected such that the resulting polymer blend comprises a combination of constitution units derived from L-lactide and constitution units derived from D-lactide. (A) a first polymer component, being a copolymer having a substantially random, partially blocky structure and selected from poly[(L-lactide)- co -( ε -caprolactone)] and poly[(D-lactide)- co -( ε -caprolactone)], wherein the first polymer component (A) has a dyad ratio of lactide-lactide dyads (LA-LA) to lactide- ε- caprolactone dyads (LA-CL) of at least 2.5:1, as determined by 1 H-NMR, and (B) a second polymer component different from the first polymer component (A) selected from poly(L-lactide), poly(D-lactide), poly[(L-lactide)- co -( ε -caprolactone)] and poly[(D-lactide)- co -( ε -caprolactone)],
A method to regroup a user equipment between user equipment coordination sets by a base station , a user equipment-coordination set comprising multiple user equipments configured to jointly transmit and/or jointly receive data for one or more user equipments of the user equipment-coordination set, a user equipment-coordination set further comprising a coordinating user equipment configured to coordinate joint transmission and/or reception of downlink and/or uplink data, the method comprising the base station : determining to regroup the user equipment from a source user equipment-coordination set to a target user equipment-coordination set ; transmitting a release message to a coordinating user equipment of the source user equipment-coordination set requesting the coordinating user equipment of the source user equipment-coordination set to release the user equipment from the source user equipment-coordination set ; transmitting a request message to a coordinating user equipment of the target user equipment-coordination set requesting the coordinating user equipment of the target user equipment-coordination set to add the user equipment to the target user equipment-coordination set ; and transmitting a regrouping message to the user equipment that is effective to direct the user equipment to perform a regrouping from the source user equipment-coordination set to the target user equipment-coordination set . determining to regroup the user equipment from a source user equipment-coordination set to a target user equipment-coordination set ; transmitting a release message to a coordinating user equipment of the source user equipment-coordination set requesting the coordinating user equipment of the source user equipment-coordination set to release the user equipment from the source user equipment-coordination set ; transmitting a request message to a coordinating user equipment of the target user equipment-coordination set requesting the coordinating user equipment of the target user equipment-coordination set to add the user equipment to the target user equipment-coordination set ; and transmitting a regrouping message to the user equipment that is effective to direct the user equipment to perform a regrouping from the source user equipment-coordination set to the target user equipment-coordination set .