mhurhangee/patent-ind-claim-en huggingface dataset:
A sensor for diagnosing a physiological or physical state , comprising: a measurement system configured to determine clinical data for one or more parameters related to the physiological or physical state; a first memory configured to store only the clinical data determined by the measurement system; a transmitter configured to transmit the clinical data according to a first communications protocol ; a receiver configured to receive enhanced data according to a second communications protocol , wherein the enhanced data is more secure than the clinical data by encrypting and/or hashing the clinical data, the enhanced data being based on processing the clinical data determined by the measurement system, a second memory configured to store only the enhanced data received by the receiver, wherein the enhanced data is in an encrypted state when received by the receiver and stored in the second memory, wherein the second memory can only be wirelessly accessed by another device in response to the sensor-communications-interface receiving data communications according to the second communications protocol , and wherein the sensor does not include any decryption capabilities. a measurement system configured to determine clinical data for one or more parameters related to the physiological or physical state; a first memory configured to store only the clinical data determined by the measurement system; a transmitter configured to transmit the clinical data according to a first communications protocol ; a receiver configured to receive enhanced data according to a second communications protocol , wherein the enhanced data is more secure than the clinical data by encrypting and/or hashing the clinical data, the enhanced data being based on processing the clinical data determined by the measurement system, a second memory configured to store only the enhanced data received by the receiver, wherein the enhanced data is in an encrypted state when received by the receiver and stored in the second memory, wherein the second memory can only be wirelessly accessed by another device in response to the sensor-communications-interface receiving data communications according to the second communications protocol , and wherein the sensor does not include any decryption capabilities.
A thermal ink jet ink composition comprising: one or more volatile organic solvents, wherein the one or more volatile organic solvents are selected from the group consisting of C 1 -C 4 alcohols, C 4 -C 8 ethers, C 3 -C 6 ketones, C 3 -C 6 esters, and mixtures thereof, wherein the one or more volatile organic solvents are present in an amount 70% or more by weight of the ink jet ink composition; one or more humectants, wherein the humectants are present in an amount not more than 30% by weight of the ink jet ink composition, wherein the one or more humectants comprises a glycol ether; one or more binder resins, wherein the binder resins are present in an amount from 0.3% to 8% by weight of the ink jet ink composition; and one or more dyes, wherein the ink jet ink composition optionally includes water up to 5% by weight of the ink jet ink composition. one or more volatile organic solvents, wherein the one or more volatile organic solvents are selected from the group consisting of C 1 -C 4 alcohols, C 4 -C 8 ethers, C 3 -C 6 ketones, C 3 -C 6 esters, and mixtures thereof, wherein the one or more volatile organic solvents are present in an amount 70% or more by weight of the ink jet ink composition; one or more humectants, wherein the humectants are present in an amount not more than 30% by weight of the ink jet ink composition, wherein the one or more humectants comprises a glycol ether; one or more binder resins, wherein the binder resins are present in an amount from 0.3% to 8% by weight of the ink jet ink composition; and one or more dyes, wherein the ink jet ink composition optionally includes water up to 5% by weight of the ink jet ink composition.
Control system for controlling a control valve of a hydrodynamic system using an actuator , the hydrodynamic system comprising a heat exchanger with a water inlet , a water outlet , an air inlet , and an air outlet , the control system comprising a water inlet temperature sensor that is configured to determine a water inlet temperature value, a water outlet temperature sensor that is configured to determine a water outlet temperature value, and an air inlet temperature sensor that is configured to determine an air inlet temperature value, characterised in that the control system is configured to determine an alpha value of a characteristic of the hydrodynamic system from 60 % of the ratio between of the difference between the water inlet temperature value and the water outlet temperature value and the difference between the water inlet temperature value and the air inlet temperature value, the characteristic showing a relationship between an opening of the control valve and an energy transmission of the heat exchanger , the alpha value determining the characteristic, to set an inverse of the alpha value of the characteristic of the hydrodynamic system as an alpha value of a characteristic of the control valve in combination with the actuator ; and to control the control valve with the actuator using the set alpha value of the characteristic of the control valve in combination with the actuator resulting in a linear relationship between the fluid flow through the hydrodynamic system and the energy transmission capacity of the heat exchanger .
Fuel tank system comprising: - a fuel tank , - a fuel vapor filter , which is fluidically connected to an ambient orifice , - a vent line leading from the fuel tank to the fuel vapor filter , - a purge air line leading from the fuel vapor filter to the fresh gas line of the combustion engine, - a compressor integrated into the purge air line and - a shutoff valve integrated into the purge air line and arranged between an orifice of the purge air line in the fresh gas line and the compressor , wherein a defined gas permeability is created for the compressor during non-operation, wherein the compressor is a piston compressor in the form of a variable capacity vane compressor, the vane of which are pressed against an inner wall of a housing of the variable capacity vane compressor during operation, wherein the configuration and/or arrangement of the variable capacity vane compressor is provided in such a way that at least one of the vanes is arranged in a manner spaced apart from the inner wall during non-operation of the variable capacity vane compressor in order to produce a defined gas permeability of the compressor . - a fuel tank , - a fuel vapor filter , which is fluidically connected to an ambient orifice , - a vent line leading from the fuel tank to the fuel vapor filter , - a purge air line leading from the fuel vapor filter to the fresh gas line of the combustion engine, - a compressor integrated into the purge air line and - a shutoff valve integrated into the purge air line and arranged between an orifice of the purge air line in the fresh gas line and the compressor ,
An arrangement for cochlear implant signal processing, the arrangement comprising: a cochlear implant signal processor 301 configured to convert a speech signal input into multi-channel stimulation pulse sequences for a cochlear implant electrode array; a temporal feature processing module 302 configured to extract temporal feature information from the stimulation pulse sequences; and a speech recognition engine 303 configured to evaluate the temporal feature information using automatic speech recognition to produce speech recognition outputs corresponding to the speech signal input; characterised in that the temporal feature processing module includes a temporal feature extraction module 402 configured to extract the temporal feature information using a short term spectrum calculation. a cochlear implant signal processor 301 configured to convert a speech signal input into multi-channel stimulation pulse sequences for a cochlear implant electrode array; a temporal feature processing module 302 configured to extract temporal feature information from the stimulation pulse sequences; and a speech recognition engine 303 configured to evaluate the temporal feature information using automatic speech recognition to produce speech recognition outputs corresponding to the speech signal input; characterised in that the temporal feature processing module includes a temporal feature extraction module 402 configured to extract the temporal feature information using a short term spectrum calculation.
A process for forming a nutritional supplement containing iron, the process comprising: providing a culture medium containing insoluble iron selected from elemental iron powders, atomized iron, electrolytic iron, H-reduced iron, CO-reduced iron, carbonyl iron, ferric pyrophosphate, and ferric orthophosphate having from 0.1 grams to up to 10 grams elemental iron per liter of culture medium; culturing filamentous fungi Aspergillus oryzae (A.o.) in the culture medium to accumulate iron in the filamentous fungi as metabolizable organic iron; and harvesting the filamentous fungi to obtain a nutritional supplement containing fungal biomass having at least 100 mg/kg organic iron in the fungal biomass. providing a culture medium containing insoluble iron selected from elemental iron powders, atomized iron, electrolytic iron, H-reduced iron, CO-reduced iron, carbonyl iron, ferric pyrophosphate, and ferric orthophosphate having from 0.1 grams to up to 10 grams elemental iron per liter of culture medium; culturing filamentous fungi Aspergillus oryzae (A.o.) in the culture medium to accumulate iron in the filamentous fungi as metabolizable organic iron; and harvesting the filamentous fungi to obtain a nutritional supplement containing fungal biomass having at least 100 mg/kg organic iron in the fungal biomass.
A flow path component , comprising: a flow path component body comprising a flow surface , the flow surface configured to be exposed to an air flow within a flow channel between an inlet and an outlet of the flow path component; and a plurality of antimicrobial nanoparticles embedded in the flow surface and at least partially exposed external to the flow surface within the flow channel forming a nanoscale texturing on the flow surface, the nanoscale texturing comprising a plurality of pointed/sharp substantially conical structures formed in polymer cure material, configured to perforate microbe cells between the antimicrobial nanoparticles embedded within the flow surface. a flow path component body comprising a flow surface , the flow surface configured to be exposed to an air flow within a flow channel between an inlet and an outlet of the flow path component; and a plurality of antimicrobial nanoparticles embedded in the flow surface and at least partially exposed external to the flow surface within the flow channel forming a nanoscale texturing on the flow surface, the nanoscale texturing comprising a plurality of pointed/sharp substantially conical structures formed in polymer cure material, configured to perforate microbe cells between the antimicrobial nanoparticles embedded within the flow surface.
Infrared-reflecting concrete product with infrared-reflecting nanoparticles enclosed in the matrix of the concrete in a non-visible size range smaller than 150 nm, the concrete product comprising at least one facing layer made of a facing layer concrete and one core layer made of a core concrete, the infrared-reflecting nanoparticles being enclosed in the matrix of the facing layer concrete , and the core concrete being manufactured from a usual cement/aggregate/water mixture, and the facing layer concrete being manufactured by mixing the nanoparticles into a cement paste and applied to an already poured core layer , and the core layer providing volume, shape and stability of the concrete product, wherein the nanoparticles make up 5% to 30% percentage by weight, in particular 8% to 20% percentage by weight, of the facing layer concrete , additional nanoparticles are introduced into the surface of the facing layer prior to hardening of said facing layer in order to introduce into the surface of the facing layer an increased concentration of nanoparticles on the surface and a decreasing concentration in the direction of the core concrete prior to hardening of the facing layer and to achieve a gradual distribution of the nanoparticles with increased concentration on the surface and decreasing concentration in the direction of the core concrete, such that the IR-reflecting effect on the surface is considerably improved.
An apparatus for use in the manufacture of contact lenses, the apparatus comprising: an injection-molding apparatus including a plate , and a removable collet in the plate ; a collet-exchange robot comprising at least one collet extraction head ; and wherein the apparatus includes a collet store for storing at least one removable collet configured to be inserted into the plate ; CHARACTERISED IN THAT : a tool half is mounted in the removable collet ; the collet-exchange robot is configured to grip the removable collet from the plate , move the removable collet to the collet store , insert the removable collet into the collet store , grip a replacement collet from the collet store , move the replacement collet to the plate , and insert the replacement collet into the plate ; wherein the injection-molding apparatus comprises a clamp configured to hold the removable collet in the plate and the removable collet includes a frustoconical rear portion and a circumferential groove upon which the clamp acts; and wherein the collet store comprises a housing for receiving a plurality of removable collets , and a turntable on which the housing is mounted, the turntable being rotatable from a first position wherein a removable collet can be manually loaded into the housing , to a second position wherein the removable collet can be removed from the collet store by the collet-exchange robot . an injection-molding apparatus including a plate , and a removable collet in the plate ; a collet-exchange robot comprising at least one collet extraction head ; and wherein the apparatus includes a collet store for storing at least one removable collet configured to be inserted into the plate ; a tool half is mounted in the removable collet ; the collet-exchange robot is configured to grip the removable collet from the plate , move the removable collet to the collet store , insert the removable collet into the collet store , grip a replacement collet from the collet store , move the replacement collet to the plate , and insert the replacement collet into the plate ; wherein the injection-molding apparatus comprises a clamp configured to hold the removable collet in the plate and the removable collet includes a frustoconical rear portion and a circumferential groove upon which the clamp acts; and wherein the collet store comprises a housing for receiving a plurality of removable collets , and a turntable on which the housing is mounted, the turntable being rotatable from a first position wherein a removable collet can be manually loaded into the housing , to a second position wherein the removable collet can be removed from the collet store by the collet-exchange robot .
An earmuff hearing protective device , comprising: a) a headpiece; b) a pair of earmuffs affixed to the headpiece, each earmuff comprising: i. a generally cup-shaped, substantially rigid shell having a head-facing rim ; ii. a head-engaging, ear-encircling cushion affixed to the rim ; iii. a sound absorber inside the shell , the device characterized in that the sound absorber has a moisture-resistant integral skin substantially surrounding an open cell foam interior having lower density and greater porosity than that of the skin . a) a headpiece; b) a pair of earmuffs affixed to the headpiece, each earmuff comprising: i. a generally cup-shaped, substantially rigid shell having a head-facing rim ; ii. a head-engaging, ear-encircling cushion affixed to the rim ; iii. a sound absorber inside the shell , the device characterized in that the sound absorber has a moisture-resistant integral skin substantially surrounding an open cell foam interior having lower density and greater porosity than that of the skin . i. a generally cup-shaped, substantially rigid shell having a head-facing rim ; ii. a head-engaging, ear-encircling cushion affixed to the rim ; iii. a sound absorber inside the shell , the device characterized in that the sound absorber has a moisture-resistant integral skin substantially surrounding an open cell foam interior having lower density and greater porosity than that of the skin .
A method performed by a wireless device, wherein the wireless device is a base station or a first user equipment , the method comprising: transmitting , to a second user equipment , a radio resource control (RRC) signal comprising a time and frequency configuration for semi-persistent scheduling, SPS; and transmitting , to the second user equipment , an information block via a physical downlink shared channel, PDSCH, configured based on the time and frequency configuration for SPS, the information block comprising signaling indicating at least one of: a modulation and coding scheme, MCS, for a subsequent transmission, PDSCH-to-HARQ feedback timing indicator, and PUCCH resource indicator. transmitting , to a second user equipment , a radio resource control (RRC) signal comprising a time and frequency configuration for semi-persistent scheduling, SPS; and transmitting , to the second user equipment , an information block via a physical downlink shared channel, PDSCH, configured based on the time and frequency configuration for SPS, the information block comprising signaling indicating at least one of: a modulation and coding scheme, MCS, for a subsequent transmission, PDSCH-to-HARQ feedback timing indicator, and PUCCH resource indicator.
A steering system including a tubular upper jacket to which a steering member is connected at a first end of the upper jacket and a lower jacket slidably fitted to a second end of the upper jacket , the steering system enabling telescopic adjustment within a predetermined range, the steering system comprising: an engaging member supported by the lower jacket ; and a buffer member fixed to the upper jacket so as to face the engaging member ; characterized by an abutting contact member fixed to the lower jacket and coming into abutting contact with the engaging member from a side opposite from a side where the buffer member faces the engaging member , wherein the buffer member includes an inclined surface that is located at a portion of the buffer member , which faces the engaging member, and that is inclined so as to gradually be closer to the upper jacket toward the engaging member , and during telescopic adjustment, the engaging member comes into abutting contact with the inclined surface of the buffer member at a sliding limit position. an engaging member supported by the lower jacket ; and a buffer member fixed to the upper jacket so as to face the engaging member ; characterized by an abutting contact member fixed to the lower jacket and coming into abutting contact with the engaging member from a side opposite from a side where the buffer member faces the engaging member , wherein the buffer member includes an inclined surface that is located at a portion of the buffer member , which faces the engaging member, and that is inclined so as to gradually be closer to the upper jacket toward the engaging member , and during telescopic adjustment, the engaging member comes into abutting contact with the inclined surface of the buffer member at a sliding limit position.
A process of shaping an article made from a hardened age-hardenable, heat treatable aluminum alloy, wherein the hardened age-hardenable, heat treatable aluminum alloy is a 6XXX series alloy comprising: heating the article to a temperature of 125°C to 425°C at a rate between 3°C/s to 200°C/s; shaping the article, wherein shaping the article comprises cutting, stamping, pressing, press-forming or drawing; and wherein the article is in T5, T6 or T61 temper before the heating step. heating the article to a temperature of 125°C to 425°C at a rate between 3°C/s to 200°C/s; shaping the article, wherein shaping the article comprises cutting, stamping, pressing, press-forming or drawing; and wherein the article is in T5, T6 or T61 temper before the heating step.
A quasi-resonant push-pull converter comprising: a transformer having a primary winding (N1, N2) and a secondary winding (N3, N4, N5, and N6) having a first, second, third and fourth terminal an input circuit configured to apply a DC power source to the primary winding (N1, N2) of the transformer ; a resonant circuit ; a first rectifier circuit having an input coupled to the first and second terminals of the secondary winding (N3, N4, N5, and N6) and an output coupled to an input of the resonant circuit ; and a second rectifier circuit having an input coupled to the third and fourth terminals of the secondary winding (N3, N4, N5, and N6); and a switching circuit configured to couple and decouple an output of the second rectifier circuit to and from the output of the first rectifier circuit responsive to a voltage of the DC power source. a transformer having a primary winding (N1, N2) and a secondary winding (N3, N4, N5, and N6) having a first, second, third and fourth terminal an input circuit configured to apply a DC power source to the primary winding (N1, N2) of the transformer ; a resonant circuit ; a first rectifier circuit having an input coupled to the first and second terminals of the secondary winding (N3, N4, N5, and N6) and an output coupled to an input of the resonant circuit ; and a second rectifier circuit having an input coupled to the third and fourth terminals of the secondary winding (N3, N4, N5, and N6); and a first rectifier circuit having an input coupled to the first and second terminals of the secondary winding (N3, N4, N5, and N6) and an output coupled to an input of the resonant circuit ; and a second rectifier circuit having an input coupled to the third and fourth terminals of the secondary winding (N3, N4, N5, and N6); and a switching circuit configured to couple and decouple an output of the second rectifier circuit to and from the output of the first rectifier circuit responsive to a voltage of the DC power source.