mhurhangee/ep-ind-claims huggingface dataset:
A method for purifying air from non-desired gases, microorganisms, droplets, particles of nano size and larger in a purifying chamber comprising a water dust zone and a subsequent ion blast chamber, which method comprises: ionizing air coming to purification in an ionization chamber which is located in an inlet end of the purifying chamber, after which the air is led through the water dust zone and subsequently through the ion blast chamber in which ion jets are rushed from ion blast tips, wherein droplet-shaped or particulate materials included in the air to be purified and flowed through the ion jets from the ion blast tips are thrown onto grounded collecting surfaces, and mass collected on the collecting surfaces flows to a bottom of the purifying chamber and from there to drainage simultaneously as the purified air is led out of the purifying chamber, characterized in that: before the ionization step, the air coming to purification is led into contact with gas sensors, and an electricity and control centre determines a voltage for the ionization based on signals from said gas sensors, and wherein the voltage for the ionization is a negative or positive voltage in the range 10 kV to 36 kV; wherein the water to be used for the water dust in the water dust zone is oxidized with hydrogen peroxide in order to intensify removal of gases and extermination of microbes. ionizing air coming to purification in an ionization chamber which is located in an inlet end of the purifying chamber, after which the air is led through the water dust zone and subsequently through the ion blast chamber in which ion jets are rushed from ion blast tips, wherein droplet-shaped or particulate materials included in the air to be purified and flowed through the ion jets from the ion blast tips are thrown onto grounded collecting surfaces, and mass collected on the collecting surfaces flows to a bottom of the purifying chamber and from there to drainage simultaneously as the purified air is led out of the purifying chamber, characterized in that: before the ionization step, the air coming to purification is led into contact with gas sensors, and an electricity and control centre determines a voltage for the ionization based on signals from said gas sensors, and wherein the voltage for the ionization is a negative or positive voltage in the range 10 kV to 36 kV; wherein the water to be used for the water dust in the water dust zone is oxidized with hydrogen peroxide in order to intensify removal of gases and extermination of microbes. before the ionization step, the air coming to purification is led into contact with gas sensors, and an electricity and control centre determines a voltage for the ionization based on signals from said gas sensors, and wherein the voltage for the ionization is a negative or positive voltage in the range 10 kV to 36 kV; wherein the water to be used for the water dust in the water dust zone is oxidized with hydrogen peroxide in order to intensify removal of gases and extermination of microbes.
A method of enabling digital currency transfers subject to a policy, the method comprising: generating, by a computer storing and/or running a cryptocurrency wallet, a master secret key and an associated master verification key, the master verification key being provided to a digital currency system; generating, by the computer, a raw selective secret key and an associated raw selective verification key; generating, by the computer, a first signature by encrypting the policy and the raw selective verification key using the master secret key; generating, by the computer, a selective verification key based on the first signature and the raw selective verification key in which the selective verification key is a tuple of the first signature and the raw selective verification key, the selective verification key being provided to the digital currency system; providing, by the computer to a device separate from the computer, the raw selective secret key and the policy; and initiating, by the device, a digital currency transfer including generating a second signature by encrypting a message instructing the digital currency transfer and the policy using the raw selective secret key, the second signature being provided to the digital currency system; such that the digital currency transfer is subject to the policy in the digital currency system, wherein the digital currency transfer transfers a digital currency associated with the cryptocurrency wallet. generating, by a computer storing and/or running a cryptocurrency wallet, a master secret key and an associated master verification key, the master verification key being provided to a digital currency system; generating, by the computer, a raw selective secret key and an associated raw selective verification key; generating, by the computer, a first signature by encrypting the policy and the raw selective verification key using the master secret key; generating, by the computer, a selective verification key based on the first signature and the raw selective verification key in which the selective verification key is a tuple of the first signature and the raw selective verification key, the selective verification key being provided to the digital currency system; providing, by the computer to a device separate from the computer, the raw selective secret key and the policy; and initiating, by the device, a digital currency transfer including generating a second signature by encrypting a message instructing the digital currency transfer and the policy using the raw selective secret key, the second signature being provided to the digital currency system; such that the digital currency transfer is subject to the policy in the digital currency system, wherein the digital currency transfer transfers a digital currency associated with the cryptocurrency wallet.
Method performed by a base station for configuring a communication between the base station, a first user equipment being adapted to operate with a first system bandwidth and a second user equipment being adapted to operate with a second system bandwidth, wherein the first system bandwidth is broader than the second system bandwidth, and wherein the second system bandwidth operates on a spectrum chunk that resides completely inside the first system bandwidth spectrum, and wherein the base station, the first user equipment and the second user equipment are located within a cellular network system, the method comprising providing first common channels and signals within the first system bandwidth to the first user equipment, providing second common channels and signals within the second system bandwidth to the second user equipment, wherein a part of the first common signals and a part of the second common signals are common signals shared by the first system bandwidth and by the second system bandwidth, configuring at least one of the shared common signals to be used by the first user equipment and the second user equipment, and further configuring the shared part of the first common signals and the shared part of the second common signals to share at least one common symbol, the first common channels and the second common channels are separated in time. providing first common channels and signals within the first system bandwidth to the first user equipment, providing second common channels and signals within the second system bandwidth to the second user equipment, wherein a part of the first common signals and a part of the second common signals are common signals shared by the first system bandwidth and by the second system bandwidth, configuring at least one of the shared common signals to be used by the first user equipment and the second user equipment, and further configuring the shared part of the first common signals and the shared part of the second common signals to share at least one common symbol, the first common channels and the second common channels are separated in time.
A flame retardant resin composition, characterized in that the flame retardant composition comprises a sulfur-containing flame retardant and a halogen-free epoxy resin, the flame-retardant resin composition further comprises a phosphorus-containing flame retardant and/or a nitrogen-containing flame retardant, wherein the sulfur-containing flame retardant is p-benzenedithiol and/or 4,4'-diaminodiphenyl disulfide.
An image forming apparatus comprising: an image forming device which includes at least four image bearers (2Y, 2M, 2C, 2K) and which forms images of color toners on corresponding image bearers of the at least four image bearers; a transferring device which includes a movable transfer medium and which transfers the color toner images on the at least four image bearers to the transfer medium; and a controller configured to control the image forming apparatus, wherein the controller performs a compulsory toner consumption processing including calculating a necessary toner compulsory consumption amount of each of the color toners to determine a necessary toner compulsory consumption cumulative amount thereof; specifying color toners whose necessary toner compulsory consumption cumulative amount is greater than a threshold value; forming compulsory consumption toner images of the specified color toners on the corresponding image bearers; and transferring the compulsory consumption toner images to the transfer medium to form a compulsory consumption combined toner image on the transfer medium, wherein when a number of the specified color toners is three or more, the compulsory consumption combined toner image includes at least two overlaid image portions (704, 705) each consisting of two of the compulsory consumption toner images, wherein the at least two overlaid image portions are arranged side by side with a space therebetween in a first direction perpendicular to a moving direction of the transfer medium. an image forming device which includes at least four image bearers (2Y, 2M, 2C, 2K) and which forms images of color toners on corresponding image bearers of the at least four image bearers; a transferring device which includes a movable transfer medium and which transfers the color toner images on the at least four image bearers to the transfer medium; and a controller configured to control the image forming apparatus, wherein the controller performs a compulsory toner consumption processing including calculating a necessary toner compulsory consumption amount of each of the color toners to determine a necessary toner compulsory consumption cumulative amount thereof; specifying color toners whose necessary toner compulsory consumption cumulative amount is greater than a threshold value; forming compulsory consumption toner images of the specified color toners on the corresponding image bearers; and transferring the compulsory consumption toner images to the transfer medium to form a compulsory consumption combined toner image on the transfer medium, wherein when a number of the specified color toners is three or more, the compulsory consumption combined toner image includes at least two overlaid image portions (704, 705) each consisting of two of the compulsory consumption toner images, wherein the at least two overlaid image portions are arranged side by side with a space therebetween in a first direction perpendicular to a moving direction of the transfer medium.
Insertion device for a geothermal probe (50, 60), comprising an insertion casing which is intended, in the mounted state, to surround the geothermal probe (50, 60) in the region of the probe foot (51, 61), comprising an independently dimensionally stable shell-like body which forms the insertion casing and has a leading end, and a fastening element (20, 120) for fastening the insertion casing to the geothermal probe (50, 60), characterized in that the insertion casing consists of a polymer material, and in that the fastening element has at least one web, which, in the mounted state, extends diametrally through the insertion casing and which, in the mounted state, bears on a bearing surface (52, 62) of the probe foot (51, 61).
A myoelectric electrode assembly for a prosthesis having a wall, the myoelectric electrode assembly comprising a retention ring adapted to be inserted into a correspondingly shaped aperture in the wall of the prosthesis, and a myoelectric electrode unit held within the retention ring characterised by a gasket which holds the myoelectric electrode unit within the retention ring and which surrounds the myoelectric electrode unit and is in sealing engagement therewith and a portion (46, 48) of which is received in and sealingly engages with an annular recess around the inside of the retention ring.
A method comprising: generating a feedback signal from an output signal of a digitally controlled oscillator; counting clock signals of the feedback signal; adding dithering to a reference clock or the feedback signal, wherein the dithering is random noise that is distributed within a resolution of a time to digital convertor, and wherein generating the dithering comprises: receiving an output from each tap of a plurality of consecutive taps of a linear feedback shift register; and summing the received outputs using binary weighting; determining a time difference between the feedback signal and the reference clock; and outputting a control signal to control the frequency of the output signal of the digitally controlled oscillator based on the determined time difference. generating a feedback signal from an output signal of a digitally controlled oscillator; counting clock signals of the feedback signal; adding dithering to a reference clock or the feedback signal, wherein the dithering is random noise that is distributed within a resolution of a time to digital convertor, and wherein generating the dithering comprises: receiving an output from each tap of a plurality of consecutive taps of a linear feedback shift register; and summing the received outputs using binary weighting; receiving an output from each tap of a plurality of consecutive taps of a linear feedback shift register; and summing the received outputs using binary weighting; determining a time difference between the feedback signal and the reference clock; and outputting a control signal to control the frequency of the output signal of the digitally controlled oscillator based on the determined time difference.
Water analysis apparatus with a transparent measuring cuvette, a light source and a light detector for acquiring an optical parameter of a water probe in the transparent measuring cuvette, a cuvette chamber, in which the measuring cuvette is arranged, a ventilation circuit for ventilating the cuvette chamber, wherein the ventilation circuit has the cuvette chamber, a ventilation pump downstream of the cuvette chamber and a cuvette chamber air inlet downstream of the ventilation pump, wherein the cuvette chamber air inlet has a pneumatic throttling element, so that when the ventilation pump is operated, there is a vacuum in the cuvette chamber in relation to the atmosphere, and a cover arrangement and an apparatus housing, wherein the apparatus housing forms the cuvette chamber that is closed fluidly by the cover arrangement, characterized in that the vacuum is a differential pressure of at least 2.0 mbar, the cover arrangement and the apparatus housing have a screw top mimic, so that the cover arrangement can be bolted to or unbolted from the apparatus housing through a rotational movement, the cover arrangement and the apparatus housing form a circular ring-shaped ring seal that is coaxial with the rotational movement, wherein the ring seal is formed by an elastic seal body provided on the cover arrangement or on the apparatus housing with a circular seal lip and a corresponding circular shoulder seat provided on the apparatus housing or on the cover arrangement onto which the seal lip is pressed by the atmospheric differential pressure, and the seal body has a blocking ring, which is fixed radially to a cylindrical support surface of the cover arrangement or of the apparatus housing.
An exhaust gas purifying catalyst, wherein the catalyst comprises: a porous silica support comprising silica having a pore structure, and a perovskite-type composite metal oxide particle supported in the pore structure of said porous silica support, wherein the peak attributable to the space between silica primary particles is in the range of 8 to 50 nm and the peak attributable to the pore structure of silica is in the range of 1 to 5 nm in the pore distribution of said porous silica support, and wherein the pore distribution is a distribution of the pore diameter and the volume measured by a nitrogen adsorption method. a porous silica support comprising silica having a pore structure, and a perovskite-type composite metal oxide particle supported in the pore structure of said porous silica support, wherein the peak attributable to the space between silica primary particles is in the range of 8 to 50 nm and the peak attributable to the pore structure of silica is in the range of 1 to 5 nm in the pore distribution of said porous silica support, and wherein the pore distribution is a distribution of the pore diameter and the volume measured by a nitrogen adsorption method.
A method for wireless communication, comprising: configuring hybrid automatic repeat request acknowledgement, HARQ-ACK, feedback for physical downlink shared channel, PDSCH, transmission by: receiving, by a user equipment, UE, a radio resource control, RRC, parameter to configure a one-shot HARQ-ACK feedback mode; receiving, by the UE, a medium access control, MAC, control element, CE, indicating a list of activated serving cells; receiving, by the UE, a downlink control information, DCI, comprising an one-shot request field with a positive value, the DCI triggering a one-shot HARQ-ACK codebook; and transmitting, by the UE, a one-shot HARQ-ACK feedback for the list of activated serving cells. receiving, by a user equipment, UE, a radio resource control, RRC, parameter to configure a one-shot HARQ-ACK feedback mode; receiving, by the UE, a medium access control, MAC, control element, CE, indicating a list of activated serving cells; receiving, by the UE, a downlink control information, DCI, comprising an one-shot request field with a positive value, the DCI triggering a one-shot HARQ-ACK codebook; and transmitting, by the UE, a one-shot HARQ-ACK feedback for the list of activated serving cells.
Rotor blade unit, comprising at least a rotor blade or vane (10,16,17,18) with a radially inner edge and a radially outer edge for realizing an energy conversion with a fluid medium, wherein - the radially outer edge of the blade is spiral-shaped around a straight central rotor axis, - the blade extends substantially along the central axis from the straight central rotor axis, characterized in that - the rotor blade extends from the axis with the radially outer edge of the rotor blade being arranged spiralling around the axis for at least a single rotation around the central axis, having the radially inner edge fixed from a first end to a second end to the straight central rotor axis. - the radially outer edge of the blade is spiral-shaped around a straight central rotor axis, - the blade extends substantially along the central axis from the straight central rotor axis, characterized in that - the rotor blade extends from the axis with the radially outer edge of the rotor blade being arranged spiralling around the axis for at least a single rotation around the central axis, having the radially inner edge fixed from a first end to a second end to the straight central rotor axis.
A method of promoting cellular expansion, the method comprising: preparing a hydrogel composition, wherein the hydrogel composition comprises a polyethylene glycol functionalized with norbornene, a matrix metalloproteinase-degradable crosslinking peptide selected from KCGGPQGIWGQGCK (SEQ ID NO:27) and KCGGPQGIAGQGCK (SEQ ID NO:28), a cell adhesion peptide, and a soluble factor binder which is a peptide having an amino acid sequence selected from the group consisting of: GGGKLTWQELYQLKYKGI (SEQ ID NO: 22), KLTWQELYQLKYKGI (SEQ ID NO: 23), KIPKASSVPTEL (SEQ ID NO: 24), KIPKASSVPTELSAISTLYL (SEQ ID NO: 25), KRTGQYKL (SEQ ID NO: 26), and CE{Fd}{Ad}{Yd}{Ld}IDFNWEYPASK (SEQ ID NO: 35); contacting a cell with the hydrogel composition; and culturing the cell; wherein the polyethylene glycol functionalized with norbornene comprises an 8-arm, 20 kDa polyethylene glycol functionalized with norbornene.
Use of microfluidized liposomes comprising at least a bilayer of at least one phospholipid containing cosmetic and/or dermopharmaceutical active ingredients and/or adjuvants, which liposomes are linked to cationic polymers the treatment of textile materials, wherein these polymers form a network over the surface of the textile material when they are brought into contact with textile material, being that said network includes several liposomes within the same cationic network where the size of the cationic polymer ranges from 600-1700 nm and the size of the liposomes is smaller than 200 nm, in which said cationic polymer is selected from the group formed by cationic cellulose, quaternized hydroxyethylcellulose, cationic starch, copolymers of diallylammonium and acrylamide salts, quaternized vinylpyrrolidone/vinylimidazole polymers, polyquaternium polymers and copolymers, graft copolymers with a cellulose backbone and quaternary ammonium groups, quaternized collagen polypeptides, hydrolyzed hydroxypropyl lauryldiammonium collagen, quaternized wheat polypeptides, cationic silicone polymers, silicone quaternium-22, adipic acid and dimethylamino hydroxypropyl diethylenetriamine copolymers, copolymers of acrylic acid with dimethyldiallylammonium chloride, cationic chitin, chitosan, cationic guar gum, guar-hydroxypropyltriammonium, quaternary ammonium salt polymers, quaternized polysaccharide polymers of agar, cationic gelatin, polyamides, cationic polymethacrylates, cationic polyamino acids, polyethyleneimine, and/or mixtures thereof.
A method for initiating a continuous analyte sensor the method comprising: receiving a data stream from an analyte sensor, the data stream including two or more sensor data points; receiving reference data from a reference analyte monitor, the reference data stream including two or more reference data points; providing at least two matched data pairs by matching the reference analyte data to time corresponding sensor data; forming a calibration set including the at least two matched data pairs; and characterised by determining a stability of the continuous analyte sensor by evaluating a correlation value of the at least two matched data pairs indicative of an amount of data association. receiving a data stream from an analyte sensor, the data stream including two or more sensor data points; receiving reference data from a reference analyte monitor, the reference data stream including two or more reference data points; providing at least two matched data pairs by matching the reference analyte data to time corresponding sensor data; forming a calibration set including the at least two matched data pairs; and
A frame-supported vehicle comprising a unitary molded unitary frame (20, 23, 24) incorporating at least one frame component (1, 2, 20, 25, 23) made of a material forming a leaky light pipe, and at least one light source (3, 27, 28, 29) arranged to launch light into the leaky light pipe, whereby the light from the light source propagates internally within the leaky light pipe and is externally visible.