mhurhangee/patent-ind-claim-en huggingface dataset:
An electrolyte membrane comprising: (i) a porous mat formed from entangled nanofibres, wherein the nanofibers are spun nanofibres, and wherein the nanofibres are composed of a non-ionically conducting heterocyclic-based polymer, the heterocyclic-based polymer comprising basic functional groups and being soluble in organic solvent; and (ii) an ion-conducting polymer which is a partially- or fully-fluorinated sulphonic acid polymer; wherein at least 80% of the porous mat is impregnated with ion-conducting polymer, and wherein the thickness of the porous mat in the electrolyte membrane is distributed across at least 80% of the thickness of the electrolyte membrane. (i) a porous mat formed from entangled nanofibres, wherein the nanofibers are spun nanofibres, and wherein the nanofibres are composed of a non-ionically conducting heterocyclic-based polymer, the heterocyclic-based polymer comprising basic functional groups and being soluble in organic solvent; and (ii) an ion-conducting polymer which is a partially- or fully-fluorinated sulphonic acid polymer;
A system for alcohol reforming and hydrogen production suitable for a submarine, comprising (a) an alcohol auto-thermal reforming unit for alcohol auto-thermal reforming and hydrogen production, and (b) a boiler unit for combustion of hydrogen and combustible gases, characterized in that - the auto-thermal reforming unit is an adiabatic fixed bed reactor arranged in a cylindrical envelope surrounded by an outer shell of metal alloy, the reactor comprising a catalytic bed , an alcohol and steam inlet , an oxygen inlet , a non return valve arranged in the oxygen inlet , a divergent nozzle with increasing size up to the diameter of the cylindrical envelope , wherein the auto-thermal reforming unit comprises a Venturi type mixing element and a distributor ring which doses the oxygen in the Venturi type mixing element or a lance creating a Venturi throat and - the boiler unit is an adiabatic fixed bed reactor arranged in a cylindrical envelope surrounded by an outer shell of metal alloy, the reactor comprising a catalytic bed , a hydrogen and combustible gases inlet , an oxygen inlet , a first divergent nozzle with increasing size up to the diameter of the cylindrical envelope , wherein the boiler unit comprises a first Venturi type mixing element and a distributor ring which doses the oxygen in the first Venturi type mixing element or a lance which creates a Venturi throat , a second Venturi element , a second divergent nozzle , a water inlet and a water injection lance , and comprising palladium membranes, wherein the palladium membranes are integrated in the auto-thermal reforming unit or positioned between the auto-thermal reforming unit and the boiler unit . - the auto-thermal reforming unit is an adiabatic fixed bed reactor arranged in a cylindrical envelope surrounded by an outer shell of metal alloy, the reactor comprising a catalytic bed , an alcohol and steam inlet , an oxygen inlet , a non return valve arranged in the oxygen inlet , a divergent nozzle with increasing size up to the diameter of the cylindrical envelope , wherein the auto-thermal reforming unit comprises a Venturi type mixing element and a distributor ring which doses the oxygen in the Venturi type mixing element or a lance creating a Venturi throat and - the boiler unit is an adiabatic fixed bed reactor arranged in a cylindrical envelope surrounded by an outer shell of metal alloy, the reactor comprising a catalytic bed , a hydrogen and combustible gases inlet , an oxygen inlet , a first divergent nozzle with increasing size up to the diameter of the cylindrical envelope , wherein the boiler unit comprises a first Venturi type mixing element and a distributor ring which doses the oxygen in the first Venturi type mixing element or a lance which creates a Venturi throat , a second Venturi element , a second divergent nozzle , a water inlet and a water injection lance ,
A touch display device comprising: a first touch electrode line in a first direction in a touch display panel ; a second touch electrode line in the first direction in the touch display panel; a first contact pad (CP1) disposed on a portion of, and connected to, an outermost touch electrode (TE) of the first touch electrode line; a first touch line (TL1) connected to the first contact pad (CP1); a second contact pad (CP2) disposed on a portion of, and connected to, an outermost touch electrode (TE) of the second touch electrode line; and a second touch line (TL2) connected to the second contact pad (CP2), wherein a value obtained by adding a surface area size of the first contact pad (CP1) to a surface area size of the first touch line (TL1) is the same as a value obtained by adding a surface area size of the second contact pad (CP2) to a surface area size of the second touch line (TL2), wherein the outermost touch electrode (TE) of the first touch electrode line is disposed in the touch display panel at a greater distance from a driver circuit than the outermost touch electrode (TE) of the second touch electrode line, and wherein a width of the first touch line (TL1) is narrower than a width of the second touch line (TL2) and the surface area size of the first contact pad (CP1) is smaller than the surface area size of the second contact pad (CP2). a first touch electrode line in a first direction in a touch display panel ; a second touch electrode line in the first direction in the touch display panel; a first contact pad (CP1) disposed on a portion of, and connected to, an outermost touch electrode (TE) of the first touch electrode line; a first touch line (TL1) connected to the first contact pad (CP1); a second contact pad (CP2) disposed on a portion of, and connected to, an outermost touch electrode (TE) of the second touch electrode line; and a second touch line (TL2) connected to the second contact pad (CP2), wherein a value obtained by adding a surface area size of the first contact pad (CP1) to a surface area size of the first touch line (TL1) is the same as a value obtained by adding a surface area size of the second contact pad (CP2) to a surface area size of the second touch line (TL2), wherein the outermost touch electrode (TE) of the first touch electrode line is disposed in the touch display panel at a greater distance from a driver circuit than the outermost touch electrode (TE) of the second touch electrode line, and wherein a width of the first touch line (TL1) is narrower than a width of the second touch line (TL2) and the surface area size of the first contact pad (CP1) is smaller than the surface area size of the second contact pad (CP2).
A milking robot for operating milking equipment comprising: a location computation unit adapted for locating at least one teat for milking; at least one robotic arm or robotic platform adapted for maneuvering milking equipment ; a motion control unit adapted for controlling movement of the at least one robotic arm or robotic platform ; and a controller for controlling operation of the milking robot and the milking equipment , wherein the controller is adapted to operate in one of an automated mode of operation and a human assisted mode of operation and to switch from the automated mode of operation to the human assisted mode of operation in response to failure to perform a task, and wherein the controller is adapted to communicate with a control device that is human operated to receive input from the control device that is human operated during the human assisted mode, and to control the location computation unit based on the input received from the control device that is human operated. a location computation unit adapted for locating at least one teat for milking; at least one robotic arm or robotic platform adapted for maneuvering milking equipment ; a motion control unit adapted for controlling movement of the at least one robotic arm or robotic platform ; and a controller for controlling operation of the milking robot and the milking equipment , wherein the controller is adapted to operate in one of an automated mode of operation and a human assisted mode of operation and to switch from the automated mode of operation to the human assisted mode of operation in response to failure to perform a task, and wherein the controller is adapted to communicate with a control device that is human operated to receive input from the control device that is human operated during the human assisted mode, and to control the location computation unit based on the input received from the control device that is human operated.
A door operation system, comprising: a base constituting a part of a wall separating a conveyance space from an external space; an opening portion provided in the base , a door configured to open and close the opening portion and to fix and release a lid member with respect to a container accommodating therein an article; a first seal member for sealing between the base and the container ; a second seal member for sealing between the base and the door ; a sealed space (Sd) defined by at least the first seal member , the second seal member , the lid member , and the door while the container is in contact with the opening portion via the first seal member ; said door operation system being characterized in that said door is provided with a first gas injection unit and with a first gas discharge unit , wherein: said first gas injection unit is configured to inject a gas into the sealed space; and said first gas discharge unit is configured to discharge a gas from the sealed space. a base constituting a part of a wall separating a conveyance space from an external space; an opening portion provided in the base , a door configured to open and close the opening portion and to fix and release a lid member with respect to a container accommodating therein an article; a first seal member for sealing between the base and the container ; a second seal member for sealing between the base and the door ; a sealed space (Sd) defined by at least the first seal member , the second seal member , the lid member , and the door while the container is in contact with the opening portion via the first seal member ; said door operation system being characterized in that said door is provided with a first gas injection unit and with a first gas discharge unit , wherein: said first gas injection unit is configured to inject a gas into the sealed space; and said first gas discharge unit is configured to discharge a gas from the sealed space. said first gas injection unit is configured to inject a gas into the sealed space; and said first gas discharge unit is configured to discharge a gas from the sealed space.
A User Equipment, UE, comprising: a receiver configured to receive a Tracking Area Update, TAU, Accept message; and characterized by further comprising: a setting unit configured to set a Temporary Identity used in Next update, TIN, to Globally Unique Temporary Identifier, GUTI, in a case where a. the TIN is currently set to Packet Temporary Mobile Subscriber Identity, P-TMSI, b. the TAU Accept message contains an indication of Idle mode Signaling Reduction, ISR, being activated, and c. a periodic routing area update timer has already expired. a receiver configured to receive a Tracking Area Update, TAU, Accept message; and characterized by further comprising: a setting unit configured to set a Temporary Identity used in Next update, TIN, to Globally Unique Temporary Identifier, GUTI, in a case where a. the TIN is currently set to Packet Temporary Mobile Subscriber Identity, P-TMSI, b. the TAU Accept message contains an indication of Idle mode Signaling Reduction, ISR, being activated, and c. a periodic routing area update timer has already expired. a. the TIN is currently set to Packet Temporary Mobile Subscriber Identity, P-TMSI, b. the TAU Accept message contains an indication of Idle mode Signaling Reduction, ISR, being activated, and c. a periodic routing area update timer has already expired.
A method for the preparation of a colloidal aqueous suspension of stable zeolite single nanocrystals with monodisperse particle size distribution ranging from 5 to 200 nm, said stable zeolite single nanocrystals having a three-dimensional framework comprising silicon or silicon and aluminum, said framework comprising channels and cavities at least partially fulfilled with a gas selected from O 2 , CO 2 and mixtures thereof and at least one cation C selected from Gd, Fe, and a mixture of Gd and Fe in an amount ranging from 0.1 to 10 weight % with respect to the total mass of said nanocrystals, wherein said method comprises the following steps: 1) submitting a colloidal suspension CS1 of at least one type stable zeolite single nanocrystals with monodisperse particle size distribution ranging from 5 to 200 nm, said stable zeolite single nanocrystals having a three-dimensional framework comprising silicon and/or aluminum, said framework comprising channels and cavities and alkali metal cations M, to an ion exchange of at least a part of the alkali metal cations M with at least one cation C selected from Gd, Fe, and a mixture of Gd and Fe cations, to obtain a colloidal suspension in water CS2 of zeolite single nanocrystals having a three-dimensional framework comprising channels and cavities, and at least one cation C selected from Gd, Fe, and a mixture of Gd and Fe cations in an amount ranging from 0.1 to 10 weight % with respect to the total mass of the zeolite single nanocrystals; 2) purifying the colloidal suspension CS2 of zeolite single nanocrystals obtained in step 1) with water until a pH ranging from 6.5 to 7.5 is reached; and 3) contacting the purified colloidal suspension of zeolite single nanocrystals obtained in step 2) with at least one gas selected from O 2 , CO 2 and a mixture of O 2 and CO 2 . 1) submitting a colloidal suspension CS1 of at least one type stable zeolite single nanocrystals with monodisperse particle size distribution ranging from 5 to 200 nm, said stable zeolite single nanocrystals having a three-dimensional framework comprising silicon and/or aluminum, said framework comprising channels and cavities and alkali metal cations M, to an ion exchange of at least a part of the alkali metal cations M with at least one cation C selected from Gd, Fe, and a mixture of Gd and Fe cations, to obtain a colloidal suspension in water CS2 of zeolite single nanocrystals having a three-dimensional framework comprising channels and cavities, and at least one cation C selected from Gd, Fe, and a mixture of Gd and Fe cations in an amount ranging from 0.1 to 10 weight % with respect to the total mass of the zeolite single nanocrystals; 2) purifying the colloidal suspension CS2 of zeolite single nanocrystals obtained in step 1) with water until a pH ranging from 6.5 to 7.5 is reached; and 3) contacting the purified colloidal suspension of zeolite single nanocrystals obtained in step 2) with at least one gas selected from O 2 , CO 2 and a mixture of O 2 and CO 2 .
A method for processing an audio/video file, comprising: determining an audio/video file to be processed; identifying loadable audio/video promotion information for the audio/video file according to at least one of attribute information about a target user and attribute information about the audio/video file; determining a location in the audio/video file for insertion of the audio/video promotion information; determining a loadable frame corresponding to the determined location in the audio/video file; setting a number of frames corresponding to a mute or gradual change transition part at least one of before and after the loadable frame; and inserting the audio/video promotion information at least one of before and after the loadable frame such that the mute or gradual change transition part exists between the audio/video file and said audio/video promotion information. determining an audio/video file to be processed; identifying loadable audio/video promotion information for the audio/video file according to at least one of attribute information about a target user and attribute information about the audio/video file; determining a location in the audio/video file for insertion of the audio/video promotion information; determining a loadable frame corresponding to the determined location in the audio/video file; setting a number of frames corresponding to a mute or gradual change transition part at least one of before and after the loadable frame; and inserting the audio/video promotion information at least one of before and after the loadable frame such that the mute or gradual change transition part exists between the audio/video file and said audio/video promotion information.
Valve device for preventing explosion propagation, said valve device comprising a housing with a passage and a closing body for closing the passage in the housing, wherein the closing body is movable between an open position and a closing position, characterized in that the closing body and the passage have a design such that at least a part of the closing body deforms plastically during the movement from the open position to the closing position or when reaching the closing position.
An information processing apparatus for performing a process relating to printing from a collaboration tool providing a chat function, the information processing apparatus comprising: a transmitting unit that transmits a message and a first shared file as a posting in a message thread of the chat function ; a first displaying unit that displays the transmitted posting and a first file name of the first shared file, wherein another posting is displayed in association with the transmitted posting as a response in the message thread; a receiving unit that receives a user operation to specify a print function through an object displayed in association with the transmitted posting; a second displaying unit that displays the first file name of the first shared file and a second file name of a second shared file which is associated with the another posting; and a transmitting unit that transmits a print instruction related for printing one or more shared files corresponding to one or more file names selected by a user from the displayed first file name and the displayed second file name. a transmitting unit that transmits a message and a first shared file as a posting in a message thread of the chat function ; a first displaying unit that displays the transmitted posting and a first file name of the first shared file, wherein another posting is displayed in association with the transmitted posting as a response in the message thread; a receiving unit that receives a user operation to specify a print function through an object displayed in association with the transmitted posting; a second displaying unit that displays the first file name of the first shared file and a second file name of a second shared file which is associated with the another posting; and a transmitting unit that transmits a print instruction related for printing one or more shared files corresponding to one or more file names selected by a user from the displayed first file name and the displayed second file name.
A computer implemented method comprising: obtaining an input acoustic sequence, the input acoustic sequence representing one or more utterances; processing the input acoustic sequence using a speech recognition model to generate a transcription of the input acoustic sequence, wherein the speech recognition model comprises a domain-specific language model, and wherein the domain-specific language model comprises a medical language model that has been trained using medical-specific training data; providing the input acoustic sequence as input to a speech prosody model configured to process the input acoustic sequence to generate an indication of speech prosody that is derived from the input acoustic sequence; and providing the generated transcription of the input acoustic sequence and the indication of speech prosody as input to a domain-specific predictive model comprising a machine-learning model, wherein the domain-specific predictive model comprises a summarization predictive model that has been trained to generate structured text content comprising a physician note that is derived from the transcription of the input acoustic sequence. obtaining an input acoustic sequence, the input acoustic sequence representing one or more utterances; processing the input acoustic sequence using a speech recognition model to generate a transcription of the input acoustic sequence, wherein the speech recognition model comprises a domain-specific language model, and wherein the domain-specific language model comprises a medical language model that has been trained using medical-specific training data; providing the input acoustic sequence as input to a speech prosody model configured to process the input acoustic sequence to generate an indication of speech prosody that is derived from the input acoustic sequence; and providing the generated transcription of the input acoustic sequence and the indication of speech prosody as input to a domain-specific predictive model comprising a machine-learning model, wherein the domain-specific predictive model comprises a summarization predictive model that has been trained to generate structured text content comprising a physician note that is derived from the transcription of the input acoustic sequence.
An image processing apparatus configured to process a plurality of captured images (Gi) of cell cultivation acquired using an imaging apparatus, the imaging apparatus including a container accommodating a liquid and an observation target S in the liquid, whereby a meniscus (M) is formed on the liquid surface of the liquid, and an imaging unit configured to image the container a plurality of times while changing a position of an observation region by relatively moving at least one of the container or the imaging unit with respect to the other, whereby a respective captured image (Gi) is acquired in each observation region smaller than the container while causing a part of the adjacent observation regions to overlap, the apparatus comprising: an overlapping region selection unit configured to select, for each overlapping region (K1-K4), the captured image (Gi) overlapping the overlapping region (K1-K4), that is closest to a center of the container , as the image of the overlapping region; and a composite image generation unit configured to generate a composite image (Gs) by linking the plurality of captured images (Gi) and the selected images, wherein a respective selected image is used in each overlapping region (K1-K4). an overlapping region selection unit configured to select, for each overlapping region (K1-K4), the captured image (Gi) overlapping the overlapping region (K1-K4), that is closest to a center of the container , as the image of the overlapping region; and a composite image generation unit configured to generate a composite image (Gs) by linking the plurality of captured images (Gi) and the selected images, wherein a respective selected image is used in each overlapping region (K1-K4).
A nanoparticle comprising a solid matrix, said solid matrix comprising albumin and a xanthophyll selected from the group consisting of α-cryptoxanthin, β-cryptoxanthin, adonirubin, adonixanthin, alloxanthin, amarouciaxanthin A, antheraxanthin, auroxanthin, caloxanthin, cantaxanthin, capsanthin, capsanthin-5-6-epoxide, capsorubin, crocoxanthin, diadinoxanthin, diatoxanthin, echinenone, fucoxanthin, fucoxanthinol, iso-fucoxanthin, iso-fucoxanthinol, lutein, luteoxanthin, mutatoxanthin, neoxanthin, nostoxanthin, violaxanthin, zeaxanthin and combinations or derivatives thereof, wherein the weight ratio of albumin to xanthophyll ranges from 1:1 to 20:1.