mhurhangee/patent-ind-claim-en huggingface dataset:
Honeycomb body for an exhaust-gas aftertreatment unit, having a multiplicity of layers stacked one on top of the other, wherein flow channels are formed between the layers , which flow channels run along the axial extent of the honeycomb body and can be flowed through in the axial direction , wherein the honeycomb body has first structured layers , wherein the structure is formed by successive undulation peaks and undulation troughs , wherein, out of mutually adjacently arranged undulation troughs of a first structured layer , there are formed protuberances in the direction of the undulation peaks belonging to the respective layer , wherein, by means of the mutually adjacently arranged protuberances of a first structured layer , a channel-like structure running in a circumferential direction of the honeycomb body is formed in the first structured layer , into which channel-like structure a second layer is placed such that the second layer is fixed relative to the first structured layer in the axial direction , characterized in that a multiplicity of second layers is arranged between two mutually adjacently arranged first structured layers , wherein the second layers are formed by smooth layers and/or by second structured layers , wherein a second layer is arranged between two mutually adjacently arranged first structured layers , wherein the second layer has an undulating structure formed by mutually adjacently arranged undulation peaks and undulation troughs, wherein the undulation length (w) of the second layer is shorter than the undulation length of the first structured layer .
A communications method, comprising: initiating, by a mobile device, a first communication through a first path between the mobile device and a network domain node; generating, by the mobile device, a first sequence information; initiating, by the mobile device, a second communication through a second path between the mobile device and the network domain node; generating, by the mobile device, a second sequence information, wherein the second sequence information is different than the first sequence information; and employing, by the mobile device, the first sequence information for further communications of the mobile device with the network domain node through the first path and employing the second sequence information for further communications of the mobile device with the network domain node through the second path, for ordering messages sent on the first path and the second path. initiating, by a mobile device, a first communication through a first path between the mobile device and a network domain node; generating, by the mobile device, a first sequence information; initiating, by the mobile device, a second communication through a second path between the mobile device and the network domain node; generating, by the mobile device, a second sequence information, wherein the second sequence information is different than the first sequence information; and employing, by the mobile device, the first sequence information for further communications of the mobile device with the network domain node through the first path and employing the second sequence information for further communications of the mobile device with the network domain node through the second path, for ordering messages sent on the first path and the second path.
A method of self-organising a telecommunications network, the method comprising: determining at least an event area from a received event request from a self-organising network, SON, function; determining , by looking up or receiving, a general impact area for the SON function based on the type of the SON function; determining for the SON function an actual impact area by combining the general impact area and actual network resources, wherein the actual network resources are received or looked up based on the event area; determining , based on the actual impact area and using stored data on previously received events, whether the actual impact area interferes with at least one executed SON function instance; and generating a coordination output based on the determination whether the event impact inteferes. determining at least an event area from a received event request from a self-organising network, SON, function; determining , by looking up or receiving, a general impact area for the SON function based on the type of the SON function; determining for the SON function an actual impact area by combining the general impact area and actual network resources, wherein the actual network resources are received or looked up based on the event area; determining , based on the actual impact area and using stored data on previously received events, whether the actual impact area interferes with at least one executed SON function instance; and generating a coordination output based on the determination whether the event impact inteferes.
A fabric sleeve (10; 110) for protecting elongate members against at least one of electromagnetic interference (EMI), radio frequency interference (RFI) or electrostatic discharge (ESD), comprising: a wall (12; 112) extending along a longitudinal axis (14; 114) between opposite ends (16, 18; 116, 118), said wall being formed from a plurality of filaments (20, 22; 120, 122) interlaced with one another, characterised in that at least one of said filaments (20, 22; 120, 122) being provided as a continuous strand of conductive wire (20; 120) and at least one of said filaments being provided as a heat-fusible nonconductive filament (22; 122), said continuous strand of conductive wire being at least partially embedded in fixed attachment with said at least one heat-fusible nonconductive filament at bond joints (24; 124) formed of melted and solidified material of said at least one heat-fusible nonconductive filament. a wall (12; 112) extending along a longitudinal axis (14; 114) between opposite ends (16, 18; 116, 118), said wall being formed from a plurality of filaments (20, 22; 120, 122) interlaced with one another, characterised in that at least one of said filaments (20, 22; 120, 122) being provided as a continuous strand of conductive wire (20; 120) and at least one of said filaments being provided as a heat-fusible nonconductive filament (22; 122), said continuous strand of conductive wire being at least partially embedded in fixed attachment with said at least one heat-fusible nonconductive filament at bond joints (24; 124) formed of melted and solidified material of said at least one heat-fusible nonconductive filament.
A method for automated troubleshooting of network access units, comprising the following steps: • detecting a malfunction of a defective network access unit and starting a recovery algorithm based on the detection of the malfunction, wherein the recovery algorithm comprises the following steps; ∘ searching for available radio communication services by the defective network access unit, wherein the available radio communication services are provided by at least one functioning network access unit; ∘ selection of a radio communication service of a functioning network access unit; ∘ establishment of a connection between the defective network access unit and the selected network access unit using the selected radio communication service and initiating a "recovery link"; ∘ exchanging recovery data between the defective and the functioning network access units via the "recovery link"; ∘ ending the recovery algorithm upon successful restoration of previously defective network access unit. • detecting a malfunction of a defective network access unit and starting a recovery algorithm based on the detection of the malfunction, wherein the recovery algorithm comprises the following steps; ∘ searching for available radio communication services by the defective network access unit, wherein the available radio communication services are provided by at least one functioning network access unit; ∘ selection of a radio communication service of a functioning network access unit; ∘ establishment of a connection between the defective network access unit and the selected network access unit using the selected radio communication service and initiating a "recovery link"; ∘ exchanging recovery data between the defective and the functioning network access units via the "recovery link"; ∘ ending the recovery algorithm upon successful restoration of previously defective network access unit. ∘ searching for available radio communication services by the defective network access unit, wherein the available radio communication services are provided by at least one functioning network access unit; ∘ selection of a radio communication service of a functioning network access unit; ∘ establishment of a connection between the defective network access unit and the selected network access unit using the selected radio communication service and initiating a "recovery link"; ∘ exchanging recovery data between the defective and the functioning network access units via the "recovery link"; ∘ ending the recovery algorithm upon successful restoration of previously defective network access unit.
A method for producing a concave diffraction grating , the method comprising: forming a mold with the steps of: forming grating grooves of a sawtooth shape with constant blaze angle on a planar substrate by photo-lithography and etching or machining and making a spacing between grating grooves to arithmetically increase in a blaze direction, so as to prepare a planar diffraction grating substrate; installing a concave substrate so that a concave surface thereof faces a surface of the planar substrate on which the grating grooves are formed, installing a convex substrate with an adhesive layer so that a convex surface faces an opposite surface of the surface of the planar substrate on which the grating grooves are formed; imitating the surface of the planar diffraction grating substrate, on which the grating grooves are formed, onto the concave substrate, and bonding the planar diffraction grating substrate to the convex substrate by the adhesive layer; and detaching the concave substrate, and then removing an outer peripheral portion which is outside the convex surface of the convex substrate in the planar diffraction grating substrate, so as to form a mold of a concave diffraction grating having a spherical concave surface; and forming the concave diffraction grating with a step of transferring the mold of the concave diffraction grating to a surface of metal or resin. forming grating grooves of a sawtooth shape with constant blaze angle on a planar substrate by photo-lithography and etching or machining and making a spacing between grating grooves to arithmetically increase in a blaze direction, so as to prepare a planar diffraction grating substrate; installing a concave substrate so that a concave surface thereof faces a surface of the planar substrate on which the grating grooves are formed, installing a convex substrate with an adhesive layer so that a convex surface faces an opposite surface of the surface of the planar substrate on which the grating grooves are formed; imitating the surface of the planar diffraction grating substrate, on which the grating grooves are formed, onto the concave substrate, and bonding the planar diffraction grating substrate to the convex substrate by the adhesive layer; and detaching the concave substrate, and then removing an outer peripheral portion which is outside the convex surface of the convex substrate in the planar diffraction grating substrate, so as to form a mold of a concave diffraction grating having a spherical concave surface; and forming the concave diffraction grating with a step of transferring the mold of the concave diffraction grating to a surface of metal or resin.
A method of producing a beverage bottle, comprising (i) providing a resin comprising FDCA and at least one diol; (ii) injection molding the resin to provide a preform; and (iii) stretch blow molding the preform to yield a beverage bottle; wherein the preform has a hoop stretch ratio of between about 5.2 and about 7.2 and an axial stretch ratio between about 2.3 and about 3.3; characterized in that the preform has a length between about 80 and about 140 mm; and the intrinsic viscosity of the preform is between 0.65 and 1.00 dL/g. (i) providing a resin comprising FDCA and at least one diol; (ii) injection molding the resin to provide a preform; and (iii) stretch blow molding the preform to yield a beverage bottle; wherein the preform has a hoop stretch ratio of between about 5.2 and about 7.2 and an axial stretch ratio between about 2.3 and about 3.3; characterized in that the preform has a length between about 80 and about 140 mm; and the intrinsic viscosity of the preform is between 0.65 and 1.00 dL/g.
A device comprising: a microphone ; sound classifier circuitry to analyze signals from the microphone , splice segments of the signals, and determine a profile for each of the spliced segments, the profile indicating one or more spectral, time, or amplitude characteristics of the signals; a sound profile memory to store sound profiles of audio sources in a building in which the device resides; and sound profile manager circuitry to determine whether the profile sufficiently matches a sound profile of the sound profile memory and, in response to a determination that the sound profile does not sufficiently match any sound profiles in the sound profile memory , provide a communication to a sound profile exchange remote to the device , the communication requesting the sound profile exchange to determine an audio source to associate with the sound profile using a remote sound profile memory to determine whether the profile sufficiently matches a sound profile of the remote sound profile memory wherein the sound profile manager circuitry is further configured to, in response to a determination that the sound profile does not sufficiently match any sound profiles in the sound profile memory or the remote sound profile memory , provide a communication to a mobile device , the communication requesting a use of the mobile device to identify an audio source of the sound profile, and in response to receiving an identity of an audio source from the mobile device , associate the sound profile with the audio source in the sound profile memory . a microphone ; sound classifier circuitry to analyze signals from the microphone , splice segments of the signals, and determine a profile for each of the spliced segments, the profile indicating one or more spectral, time, or amplitude characteristics of the signals; a sound profile memory to store sound profiles of audio sources in a building in which the device resides; and sound profile manager circuitry to determine whether the profile sufficiently matches a sound profile of the sound profile memory and, in response to a determination that the sound profile does not sufficiently match any sound profiles in the sound profile memory , provide a communication to a sound profile exchange remote to the device , the communication requesting the sound profile exchange to determine an audio source to associate with the sound profile using a remote sound profile memory to determine whether the profile sufficiently matches a sound profile of the remote sound profile memory wherein the sound profile manager circuitry is further configured to, in response to a determination that the sound profile does not sufficiently match any sound profiles in the sound profile memory or the remote sound profile memory , provide a communication to a mobile device , the communication requesting a use of the mobile device to identify an audio source of the sound profile, and in response to receiving an identity of an audio source from the mobile device , associate the sound profile with the audio source in the sound profile memory .
A method of preparing a chabazite zeolite membrane having a controlled pore size using a chemical vapor deposition, comprising: (I) depositing plate-like silica chabazite zeolite particles onto a substrate or a support by sonicating the substrate or the support and a suspension of silica chabazite zeolite particles to, thereby forming a uniform seed layer; (II) producing a chabazite zeolite membrane by hydrothermally treating the substrate or the support having the uniform seed layer to grow the uniform seed layer; and (III) treating chemical vapor deposition (CVD) on the chabazite zeolite membrane while introducing silica precursor having a vapor-phase onto surface of the chabazite zeolite membrane, wherein the chemical vapor deposition (CVD) is performed at a temperature of 50 to 500°C for 6-144 hours. (I) depositing plate-like silica chabazite zeolite particles onto a substrate or a support by sonicating the substrate or the support and a suspension of silica chabazite zeolite particles to, thereby forming a uniform seed layer; (II) producing a chabazite zeolite membrane by hydrothermally treating the substrate or the support having the uniform seed layer to grow the uniform seed layer; and (III) treating chemical vapor deposition (CVD) on the chabazite zeolite membrane while introducing silica precursor having a vapor-phase onto surface of the chabazite zeolite membrane,
An aqueous composition for preparing a hard capsule, the aqueous composition comprising a cellulose ether solution, the cellulose ether solution comprising: a water-soluble cellulose ether; an alcohol; and water, wherein the aqueous composition further comprises 0.05 to 5.0 wt% of a gelation agent and more than 0 wt% and up to 1.0 wt% of a gelation aid, and 0.05 to 5.0 wt% of a plasticizer, wherein the gelation agent is selected from Carrageenan, Gellan gum, Xanthan gum, Pectin, and a mixture of two or more of these, wherein the gelation aid is selected from potassium chloride, potassium acetate, calcium chloride, and a mixture of two or more of these, wherein the aqueous composition comprises 10 to 25 wt% of the water-soluble cellulose ether, and 5 to 30 wt% of the alcohol, wherein non-dissolved cellulose ether is absent from the aqueous composition. a water-soluble cellulose ether; an alcohol; and water, wherein the aqueous composition further comprises 0.05 to 5.0 wt% of a gelation agent and more than 0 wt% and up to 1.0 wt% of a gelation aid, and 0.05 to 5.0 wt% of a plasticizer, wherein the gelation agent is selected from Carrageenan, Gellan gum, Xanthan gum, Pectin, and a mixture of two or more of these, wherein the gelation aid is selected from potassium chloride, potassium acetate, calcium chloride, and a mixture of two or more of these, wherein the aqueous composition comprises 10 to 25 wt% of the water-soluble cellulose ether, and 5 to 30 wt% of the alcohol, wherein non-dissolved cellulose ether is absent from the aqueous composition.
Actuating grip for arrangement on an actuation device , to be actuated manually, in the interior compartment of a motor vehicle, comprising a base unit which is formed from a first material having a first hardness and which has a connection side , said connection side being configured for fastening to an actuation device at least sectionally, and comprising a grip element which is connected mechanically to the base unit on the side that is opposite the connection side and which at least sectionally forms the outer side of the actuating grip and which is formed from a second material having a second hardness, wherein the first hardness is greater than the second hardness and the Shore A hardness of the second material is less than 50 and, between outer surfaces of the base unit arranged adjacently in different planes, a radius R T is configured for at least partial rounding of the base unit , where R T > 3.2 mm, characterized in that the base unit has at least one fastening element for mechanically fixing the actuating grip to the actuation device to be actuated manually and, connected mechanically to the fastening element , one main body , wherein at least the main body is formed with rounded portions between outer surfaces arranged adjacently in different planes that have a radius R T , where R T > 3.2 mm.
A method of producing a rotor of a motor, comprising the steps of: press-fitting a ring-shaped rotor magnet into a cylindrical cover , which is composed of a non-magnetic material and which has an opening section from which a flange is extended inward, so as to cover an outer circumference of the rotor magnet ; coaxially setting the rotor magnet , which has been covered with the cover , and a rotor shaft in a molding die ; and insert-molding said members set in the molding die so as to expose an outer circumference of the cover and cover both end parts and an inner circumference of the rotor magnet with molding resin ; characterized in that the method further comprises the step of: magnetizing the rotor magnet, with using a concave section formed in an edge part of the outer circumference of the cover as a reference position for magnetization, after performing said insert-molding step. press-fitting a ring-shaped rotor magnet into a cylindrical cover , which is composed of a non-magnetic material and which has an opening section from which a flange is extended inward, so as to cover an outer circumference of the rotor magnet ; coaxially setting the rotor magnet , which has been covered with the cover , and a rotor shaft in a molding die ; and insert-molding said members set in the molding die so as to expose an outer circumference of the cover and cover both end parts and an inner circumference of the rotor magnet with molding resin ; characterized in that the method further comprises the step of: magnetizing the rotor magnet, with using a concave section formed in an edge part of the outer circumference of the cover as a reference position for magnetization, after performing said insert-molding step.
Method for treating a liquid L, said liquid comprising: - at least one solvent Sol, said solvent being aqueous; - at least one acid gas G dissolved in the solvent Sol, said gas being CO 2 ; and - at least one substance A, said substance A being a capture agent of said gas G; said substance A being ammonia; characterized in that : - a permeable membrane M significantly selective to A only is provided, said selectivity being superior or equal to 2 for A than for Sol and G, this selectivity is defined as the ratio of the permeability measured in Barrer (1 Barrer = 3.35 × 10 -16 mol/m -1 .s -1 .Pa- 1 ) of the specie passing into the permeate, that is A, on the permeability of the specie we seek to keep in the retentate; - the liquid L is fed from one side of the membrane M, A being able to pass through M; - a permeate containing A is collected; - a retentate containing Sol and G is collected; and - A is extracted by removal from the permeate side of the membrane M, the removal of A occurring at least by applying a reduction in the partial pressure of A, by the passage of a condensable gas or by vacuuming. - at least one solvent Sol, said solvent being aqueous; - at least one acid gas G dissolved in the solvent Sol, said gas being CO 2 ; and - at least one substance A, said substance A being a capture agent of said gas G; said substance A being ammonia; characterized in that : - a permeable membrane M significantly selective to A only is provided, said selectivity being superior or equal to 2 for A than for Sol and G, this selectivity is defined as the ratio of the permeability measured in Barrer (1 Barrer = 3.35 × 10 -16 mol/m -1 .s -1 .Pa- 1 ) of the specie passing into the permeate, that is A, on the permeability of the specie we seek to keep in the retentate; - the liquid L is fed from one side of the membrane M, A being able to pass through M; - a permeate containing A is collected; - a retentate containing Sol and G is collected; and - A is extracted by removal from the permeate side of the membrane M, the removal of A occurring at least by applying a reduction in the partial pressure of A, by the passage of a condensable gas or by vacuuming.