mhurhangee/patent-ind-claim-en huggingface dataset:
A base band unit comprising: a processor , the processor configured to, receive a first message from a base station , the first message including information identifying a remote radio head and a first time delay, the first time delay indicating a propagation time delay between a user equipment and the base station , receive a second message from the user equipment , the second message indicating the user equipment is associated with the remote radio head, receive a reference signal from the user equipment , the reference signal including a time stamp, determine a second time delay based on a time reference, the second time delay indicating a propagation time delay between the user equipment and the base band unit , determine a time value based on the first time delay and the second time delay, and transmit a data packet to the user equipment via the remote radio head, the transmitting being advanced in time by the time value. receive a first message from a base station , the first message including information identifying a remote radio head and a first time delay, the first time delay indicating a propagation time delay between a user equipment and the base station , receive a second message from the user equipment , the second message indicating the user equipment is associated with the remote radio head, receive a reference signal from the user equipment , the reference signal including a time stamp, determine a second time delay based on a time reference, the second time delay indicating a propagation time delay between the user equipment and the base band unit , determine a time value based on the first time delay and the second time delay, and transmit a data packet to the user equipment via the remote radio head, the transmitting being advanced in time by the time value.
A method for producing a core/shell zeolite comprising a core portion and a shell portion, the method comprising: forming a mixture comprising a cationic polymer, precursor materials of the porous material, and one or more core seed materials, the core seed materials comprising a microporous structure; forming the shell portion intermediate material around the core seed material, the shell portion intermediate material comprising micropores, where: the cationic polymer acts as a structure-directing agent for the formation of the micropores of the shell portion intermediate; and the cationic polymer comprises monomers that comprise two or more quaternary ammonium cations or quaternary phosphonium cations separated by a hydrocarbon chain; and calcining the core/shell porous material to form a core/shell zeolite, where the shell portion comprises a mesoporous zeolite. forming a mixture comprising a cationic polymer, precursor materials of the porous material, and one or more core seed materials, the core seed materials comprising a microporous structure; forming the shell portion intermediate material around the core seed material, the shell portion intermediate material comprising micropores, where: the cationic polymer acts as a structure-directing agent for the formation of the micropores of the shell portion intermediate; and the cationic polymer comprises monomers that comprise two or more quaternary ammonium cations or quaternary phosphonium cations separated by a hydrocarbon chain; and the cationic polymer acts as a structure-directing agent for the formation of the micropores of the shell portion intermediate; and the cationic polymer comprises monomers that comprise two or more quaternary ammonium cations or quaternary phosphonium cations separated by a hydrocarbon chain; and calcining the core/shell porous material to form a core/shell zeolite, where the shell portion comprises a mesoporous zeolite.
A communication device comprising: a sensing element for monitoring the state of a single-use sterilizable element such as a single-use bioreactor, wherein the state of the single-use sterilizable element is determined by at least one environmental condition, the sensing element comprising: a variable component having at least one physical property that is configured to change in response to the at least one environmental condition and/or a change thereof, wherein the variable component comprises a sensing material with changing absorption characteristics for electromagnetic radiation configured to change in response to the at least one environmental condition and/or the change thereof, wherein the communication device further comprises: an electronic circuit configured to store electronic information and an antenna connected to the electronic circuit , wherein the antenna is configured to transmit a radio-frequency signal modulated by the electronic information, and wherein the electronic circuit is operatively coupled to the sensing element so that the at least one physical property affects the modulation of the radio-frequency signal. a sensing element for monitoring the state of a single-use sterilizable element such as a single-use bioreactor, wherein the state of the single-use sterilizable element is determined by at least one environmental condition, the sensing element comprising: a variable component having at least one physical property that is configured to change in response to the at least one environmental condition and/or a change thereof, wherein the variable component comprises a sensing material with changing absorption characteristics for electromagnetic radiation configured to change in response to the at least one environmental condition and/or the change thereof, wherein the communication device further comprises: an electronic circuit configured to store electronic information and an antenna connected to the electronic circuit , wherein the antenna is configured to transmit a radio-frequency signal modulated by the electronic information, and wherein the electronic circuit is operatively coupled to the sensing element so that the at least one physical property affects the modulation of the radio-frequency signal. an electronic circuit configured to store electronic information and an antenna connected to the electronic circuit , wherein the antenna is configured to transmit a radio-frequency signal modulated by the electronic information, and wherein the electronic circuit is operatively coupled to the sensing element so that the at least one physical property affects the modulation of the radio-frequency signal.
Method for operating a brake system of a motor vehicle , the motor vehicle having a vehicle body and a plurality of wheels which are mounted relative to the vehicle body by way of a wheel suspension system on the vehicle body , it being possible for the vehicle body to carry out a pitch movement by way of the wheel suspension system , and the brake system having a wheel-individual wheel brake for at least some of the wheels, and a pitch angle of the vehicle body being monitored, and the wheel brakes being actuated in a manner which is dependent on the detected pitch angle ( φ ), characterized in that normal forces (F N ) which act on the wheels are calculated in a manner which is dependent on the pitch angle ( φ ), with the result that a maximum possible brake torque can be determined in a manner which is dependent on the calculated normal forces (F N ) and can be set by way of the respective wheel brake.
A gas turbine engine comprising a low pressure spool including a fan rotor arranged at a forward end of the engine , a low pressure turbine rotor arranged at an aft end of the engine , a low pressure drive shaft extending along an axis and rotationally coupling the fan rotor to receive driven rotation from the low pressure turbine rotor , a high pressure spool including a compressor rotor , a high pressure turbine rotor , and a high pressure drive shaft extending along the axis and rotationally coupling the compressor rotor to receive driven rotation from the high pressure turbine rotor , a support frame having an outer collar that extends around the axis and a number of struts extending radially inward from the outer collar , and a low pressure generator assembly including a generator housing , a generator core received within the generator housing , and an electrical assembly connected electrically with the generator core , the electrical assembly including a connector module attached to the generator housing , a number of busbars connected to the connector module , and a terminal base coupled to the number of busbars and mounted on an outer surface of the collar , the number of busbars extending radially through one of the number of struts for connection with the terminal base , wherein the busbars 64 are each embodied as a straight rod formed of electrically conductive material; and wherein the number of busbars are connected to one of the connector module and the terminal base by a fixed connection and to the other of the connector module and the terminal base by a floating connection.
Nozzle body for a fluid injector, comprising - a nozzle wall limiting a penetrating opening of the nozzle body along a longitudinal axis (L) from a fluid inlet end to a fluid outlet end of the nozzle body , - a needle seat formed as a portion of the nozzle wall to interact with a needle to prevent a fluid flow through a flow hole in a closed position and otherwise to enable it, wherein the flow hole penetrates the nozzle wall in the region of the fluid outlet end from the opening to outside of the nozzle body , and - a sac volume portion of the nozzle wall formed in the region of the fluid outlet end such as to limit a sac volume , wherein the sac volume portion limits a cavity between the needle seat and the flow hole with respect to the longitudinal axis (L) to generate a stagnating flow area for a streaming fluid, and comprises a protrusion of the nozzle wall in the region of the cavity characterized in that the sac volume portion further comprises a section shaped to limit a ring shaped notch forming the cavity , wherein with respect to a cross section along the longitudinal axis (L) the notch comprises a circular shape at the fluid inlet end of the notch directly adjacent to one or more linear shapes at the fluid outlet end of the notch which realizes the protrusion located between the flow hole and the notch . - a nozzle wall limiting a penetrating opening of the nozzle body along a longitudinal axis (L) from a fluid inlet end to a fluid outlet end of the nozzle body , - a needle seat formed as a portion of the nozzle wall to interact with a needle to prevent a fluid flow through a flow hole in a closed position and otherwise to enable it, wherein the flow hole penetrates the nozzle wall in the region of the fluid outlet end from the opening to outside of the nozzle body , and - a sac volume portion of the nozzle wall formed in the region of the fluid outlet end such as to limit a sac volume , wherein the sac volume portion limits a cavity between the needle seat and the flow hole with respect to the longitudinal axis (L) to generate a stagnating flow area for a streaming fluid, and
A coating composition for forming an elastic barrier coating, the coating composition comprising: an aqueous carrier medium; at least a first polymer comprising: (i) a barrier segment comprising aromatic groups and urethane linkages, urea linkages, or a combination thereof; and (ii) an elastomeric segment that is different from (i) having a glass transition temperature of less than 0°C, wherein the barrier segment comprises at least 30 weight % of the polymer based on the total solids weight of the polymer; and polymeric core-shell particles dispersed in the aqueous carrier medium. an aqueous carrier medium; at least a first polymer comprising: (i) a barrier segment comprising aromatic groups and urethane linkages, urea linkages, or a combination thereof; and (ii) an elastomeric segment that is different from (i) having a glass transition temperature of less than 0°C, wherein the barrier segment comprises at least 30 weight % of the polymer based on the total solids weight of the polymer; and polymeric core-shell particles dispersed in the aqueous carrier medium.
Method for extending the frequency band of an audio frequency signal during a decoding or improvement process comprising a step for obtaining the decoded signal in a first frequency band called the low band, the method being characterized in that it includes the following steps: - extending (E401a) over at least a second frequency band higher than the first frequency band the decoded low band signal to form an extended decoded low band signal U HB1 (k), k representing the samples covering the U HB1 (k) spectrum; - extracting (E402) tonal components and of an ambient signal from the signal coming from the extended decoded low-band signal; - combining (E403) the tonal components and the ambient signal by adaptive mixing using energy level control factors to obtain a combined signal; - synthesizing (E404b) an audio signal to bring a signal from the combined signal back into the time domain; and wherein the step of extracting (E402) the tonal components and the ambient signal includes the following operations: (a) calculating the total energy of the extended decoded low band signal; (b) calculating the ambience in absolute value corresponding to the average level of the spectrum line by line and calculating the energy of the dominant tonal parts in the high frequency spectrum. - extending (E401a) over at least a second frequency band higher than the first frequency band the decoded low band signal to form an extended decoded low band signal U HB1 (k), k representing the samples covering the U HB1 (k) spectrum; - extracting (E402) tonal components and of an ambient signal from the signal coming from the extended decoded low-band signal; - combining (E403) the tonal components and the ambient signal by adaptive mixing using energy level control factors to obtain a combined signal; - synthesizing (E404b) an audio signal to bring a signal from the combined signal back into the time domain; and wherein the step of extracting (E402) the tonal components and the ambient signal includes the following operations: (a) calculating the total energy of the extended decoded low band signal; (b) calculating the ambience in absolute value corresponding to the average level of the spectrum line by line and calculating the energy of the dominant tonal parts in the high frequency spectrum. (a) calculating the total energy of the extended decoded low band signal; (b) calculating the ambience in absolute value corresponding to the average level of the spectrum line by line and calculating the energy of the dominant tonal parts in the high frequency spectrum.
A method of treating arsenic contaminants in an in situ environment, comprising the steps of: preparing an aqueous chelated iron solution comprising an effective amount of a iron selected from at least one member of the group consisting of Fe (II) chelates, Fe (III) chelates and combinations thereof; adding both a stabilized source of an oxidizing agent stabilized with a stabilizer to said in situ environment in an effective concentration, and also said aqueous iron solution to said in situ environment in the presence of said source of the oxidizing agent in an amount sufficient to promote the co-precipitation of iron-arsenic oxyhydroxides;. and, oxidizing arsenic in the in situ environment and oxidizing iron in the in situ environment. preparing an aqueous chelated iron solution comprising an effective amount of a iron selected from at least one member of the group consisting of Fe (II) chelates, Fe (III) chelates and combinations thereof; adding both a stabilized source of an oxidizing agent stabilized with a stabilizer to said in situ environment in an effective concentration, and also said aqueous iron solution to said in situ environment in the presence of said source of the oxidizing agent in an amount sufficient to promote the co-precipitation of iron-arsenic oxyhydroxides;. and, oxidizing arsenic in the in situ environment and oxidizing iron in the in situ environment.
A sensor system comprising a first sensor device comprising a touch controller connected with a plurality of first sensor electrodes and a second capacitive sensor device comprising a capacitive non-touching movement controller connected with a plurality of second capacitive sensor electrodes configured to detect a movement of an object relative to a detection surface, wherein one of the first sensor electrodes and one of the second capacitive sensor electrodes are placed to have a distance between each other, which defines a capacitive coupling (C PATH ), wherein the sensor system may be operated in a first mode of operation (BM1) using said first sensor device and in a second mode of operation (BM2) using said second capacitive sensor device , wherein the sensor system is configured to be switched over from the first mode of operation into the second mode of operation, and wherein when switched over from the first mode of operation into the second mode of operation, while in the second mode of operation said one of the second capacitive sensor electrodes is connected to a sensor input of the capacitive non-touching movement controller and said one of the first sensor electrodes is connected to a sensor input of the touch controller, the first sensor device comprises at least one signal path connected with a predetermined fixed electric potential , which is parallel to a parasitic capacitance (C PARA ) of the first sensor device , wherein the parasitic capacitance (C PARA ) is connected between a connection node of the controller that is connected with said one of the first sensor electrodes and said predetermined fixed electric potential .
A method for manufacturing a semiconductor device comprising: (A) a step of preparing a structure including an adhesive laminate film having a heat-resistant resin layer , a flexible resin layer and an adhesive resin layer in this order, and one or two or more semiconductor chips adhered to the adhesive resin layer; (B) a step of confirming an operation of the semiconductor chips in a state of being adhered to the adhesive resin layer ; (C) a step of, after the step (B), peeling the heat-resistant resin layer from the adhesive laminate film ; and (D) a step of, after the step (C), picking up the semiconductor chips from the adhesive resin layer , wherein a melting point of the heat-resistant resin layer is equal to or more than 200°C, or a decomposition temperature of the heat-resistant resin layer is equal to or more than 200°C. (A) a step of preparing a structure including an adhesive laminate film having a heat-resistant resin layer , a flexible resin layer and an adhesive resin layer in this order, and one or two or more semiconductor chips adhered to the adhesive resin layer; (B) a step of confirming an operation of the semiconductor chips in a state of being adhered to the adhesive resin layer ; (C) a step of, after the step (B), peeling the heat-resistant resin layer from the adhesive laminate film ; and (D) a step of, after the step (C), picking up the semiconductor chips from the adhesive resin layer ,
A method for quality evaluation of peanuts suitable for snack peanut processing, characterized in that , comprising: obtaining the mass of the skin-removed peanuts to be measured, and obtaining the weight per hundred kernels of the peanuts, the water content of the peanuts, and the ratio of the oleic acid and linoleic acid contained in the peanuts; calculating the quality evaluation factor associated with the peanuts according to formula Y = 30.287+9.995× a +0.133× b -0.686× c ; wherein Y is the quality evaluation factor associated with the peanuts, a is the ratio of the oleic acid and linoleic acid contained in the peanuts, b is the weight per hundred kernels of the peanuts in grams, and c is the water content of the peanuts; and evaluating the suitability of using the peanuts for snack peanut processing according to the quality evaluation factor. obtaining the mass of the skin-removed peanuts to be measured, and obtaining the weight per hundred kernels of the peanuts, the water content of the peanuts, and the ratio of the oleic acid and linoleic acid contained in the peanuts; calculating the quality evaluation factor associated with the peanuts according to formula Y = 30.287+9.995× a +0.133× b -0.686× c ; wherein Y is the quality evaluation factor associated with the peanuts, a is the ratio of the oleic acid and linoleic acid contained in the peanuts, b is the weight per hundred kernels of the peanuts in grams, and c is the water content of the peanuts; and evaluating the suitability of using the peanuts for snack peanut processing according to the quality evaluation factor.
A portable hair removal and fluid application device having a head portion comprising a hair removal means , and a handle having a fluid reservoir and a fluid dispensing means , wherein said fluid dispensing means is located in said head portion , wherein said head portion comprises a front surface and a back surface, wherein said front surface comprises said hair removal means and said back surface comprises said fluid dispensing means , said fluid dispensing means having a skin contacting surface, and wherein said head portion has a storage configuration and an in use configuration, wherein in said storage configuration said head portion is positioned adjacent said handle and substantially parallel thereto and in said in use configuration said head portion is positioned substantially perpendicular to said handle , characterized in that said fluid dispensing means is selected from foams, wovens, nonwovens, apertured or perforated films, felt and combinations thereof.
A sealer for gas-tight sealing of wells in a PCR plate using a sealing film, whereas the sealer comprises a hinge and further a sealer body in the form of a longitudinally cut-out cylinder comprising a cylindrical shell area for forcefully transferring the sealing film to the upper rigid edge part of the PCR plate wells by pressure and swaying-rolling motion of the sealer body , and a cut-out shell area where the sealer body is rotatably connected to a hinge by means of a joint with a rotation axis coincident with a central axis of the cylindrical surface the sealer further comprises at least one clamping element for clamping both ends of the sealing film to the sealer body , characterised in that the hinge is further connected to a positioning device for horizontal and/or vertical movement of the sealer in a plane perpendicular to the axis of rotation of the sealer body ; the clamping element is in the form of a housing , where the lower portion of the housing dimensionally and shape-wise corresponds to the cut-out shell area made of ferromagnetic material and at least one magnet is located inside the lower portion of the housing , and the housing is further connected to the cut-out shell area by means of a barrier consisting of a barrier body provided at the ends thereof with two heads , where one barrier head is housed in the hollow body of the sealer and the second barrier head is housed in the housing , and the barrier body extends through an opening in the cut-out shell area and an opening in the lower housing part, where each opening is smaller than the respective head , and the barrier body is provided with a spreader spring that overcomes the magnetic force of the sealer body separated from the housing but does not overcome the magnetic force of the housing pressed to the sealer body .
Method for regulating a circulation pump for a heating installation, wherein the pump controller records the temperature profile of the medium temperature for a particular time period and, taking into the account the recorded temperature profile, adapts the pump rotational speed during circulation operation, characterized in that , on the basis of the recorded temperature profile, a mean cooling curve for the medium temperature during a cooling phase of the heating boiler is determined, wherein the mean cooling curve is characteristic of a mean heating requirement of the heating installation.
A topical composition comprising 25% ± 2.5% w/w to 50% ± 5% w/w hydrogen peroxide and 1% ± 0.1% w/w to 5% ± 0.5% w/w 2-propanol.