mhurhangee/patent-ind-claim-en huggingface dataset:
Method for the preparation of ammonia synthesis gas comprising the steps of (a) providing a gaseous hydrocarbon feed stock; (b) separating atmospheric air into a separate oxygen containing stream and into a separate nitrogen containing stream; (c) preparing a separate hydrogen containing stream and a separate oxygen containing stream by electrolysis of water; (d) autothermal or secondary reforming at least a part of the gaseous hydrocarbon feed stock with the oxygen containing stream obtained by the separation of atmospheric air in step (b) and the oxygen containing stream obtained by the electrolysis of water in step (c) to a process gas comprising hydrogen, carbon monoxide and carbon dioxide; (e) treating the process gas withdrawn from the auto-thermal or secondary reforming step (d) in one or more water gas shift reactions; (f)removing the carbon dioxide from the water gas shift treated process gas; (g)purifying the process gas from step (f) to obtain a purified hydrogen stream; and (h) introducing the nitrogen containing stream obtained by the separation of atmospheric air in step (b) into the purified hydrogen stream in an amount to provide a molar ratio of the hydrogen to the nitrogen of 2.7-3.3 in the mixed hydrogen and nitrogen gas stream to obtain the ammonia synthesis gas. (a) providing a gaseous hydrocarbon feed stock; (b) separating atmospheric air into a separate oxygen containing stream and into a separate nitrogen containing stream; (c) preparing a separate hydrogen containing stream and a separate oxygen containing stream by electrolysis of water; (d) autothermal or secondary reforming at least a part of the gaseous hydrocarbon feed stock with the oxygen containing stream obtained by the separation of atmospheric air in step (b) and the oxygen containing stream obtained by the electrolysis of water in step (c) to a process gas comprising hydrogen, carbon monoxide and carbon dioxide; (e) treating the process gas withdrawn from the auto-thermal or secondary reforming step (d) in one or more water gas shift reactions; (f)removing the carbon dioxide from the water gas shift treated process gas; (g)purifying the process gas from step (f) to obtain a purified hydrogen stream; and (h) introducing the nitrogen containing stream obtained by the separation of atmospheric air in step (b) into the purified hydrogen stream in an amount to provide a molar ratio of the hydrogen to the nitrogen of 2.7-3.3 in the mixed hydrogen and nitrogen gas stream to obtain the ammonia synthesis gas.
Fitout article or article of equipment for a kitchen or laboratory, comprising a display device and a separation element , wherein the separation element separates, at least in certain areas, an internal region of the article from an external region , wherein the display device is disposed in the internal region of the article in such a way that light emitted by the display device passes through a portion of the separation element and is perceivable by a user in the external region of the article , wherein the separation element comprises a glass substrate or a glass ceramic substrate with a coefficient of thermal expansion CTE of -6×10 -6 /K to 6×10 -6 /K in the temperature range of between 20°C and 300°C, wherein a covering means is disposed on the side of the separation element facing the internal region of the article , wherein the covering means has a light transmittance of no more than 7% and, at least in the region of the display device , comprises at least one cutout which overlaps with the glass substrate or glass ceramic substrate, wherein the separation element has a light transmittance of at least 5% and most 70% in the region of the cutout , wherein the covering means has a colour point in the CIELAB colour space with coordinates L* from 20 to 40, a* from -6 to 6 and b* from -6 to 6, measured in reflection with D65 standard illuminant light against a black trap in transmitted view through the glass substrate or glass ceramic substrate, wherein the colour point of D65 standard illuminant light after the passage through the glass substrate or glass ceramic substrate of the separation element in the region of the cutout of the covering means lies within a white region W1, determined in the chromaticity diagram CIExyY-2° by the following coordinates: White region W1 x y 0.27 0.21 0.22 0.25 0.32 0.37 0.45 0.45 0.47 0.34 0.36 0.29
A pharmaceutical composition comprising: (i) a Clostridial toxin active ingredient; (ii) a tonicity agent; (iii) a poloxamer and/or a polysorbate; and (iv) an antioxidant, wherein the antioxidant comprises one or more of methionine and N-Acetyl-cysteine, and wherein the antioxidant further comprises ethylene diamine tetraacetic acid sodium salt (EDTA) or an EDTA analog. (i) a Clostridial toxin active ingredient; (ii) a tonicity agent; (iii) a poloxamer and/or a polysorbate; and (iv) an antioxidant, wherein the antioxidant comprises one or more of methionine and N-Acetyl-cysteine, and wherein the antioxidant further comprises ethylene diamine tetraacetic acid sodium salt (EDTA) or an EDTA analog.
A method of classifying a medical image by a computing device operated by at least one processor , the method comprising: obtaining an abnormality score of an input image using an abnormality prediction model ; excluding the input image from being subsequently analyzed and classifying the input image as strong normal, when the abnormality score is less than or equal to a cut-off score based on the cut-off score which makes a specific reading sensitivity; and obtaining an analysis result of the input image using a classification model that distinguishes the input image into weak normal or abnormal when the abnormality score is greater than the cut-off score, wherein the classification model includes an artificial intelligence model that has learned a task of distinguishing the input image into weak normal or abnormal, and characterised in that wherein obtaining the abnormality score comprises obtaining calibrated disease prediction scores, through calibration that converts a cut-off score for each disease, which makes the specific reading sensitivity, into the cut-off score, and determining a maximum value among the calibrated disease prediction scores as the abnormality score. obtaining an abnormality score of an input image using an abnormality prediction model ; excluding the input image from being subsequently analyzed and classifying the input image as strong normal, when the abnormality score is less than or equal to a cut-off score based on the cut-off score which makes a specific reading sensitivity; and obtaining an analysis result of the input image using a classification model that distinguishes the input image into weak normal or abnormal when the abnormality score is greater than the cut-off score, wherein the classification model includes an artificial intelligence model that has learned a task of distinguishing the input image into weak normal or abnormal, and characterised in that wherein obtaining the abnormality score comprises obtaining calibrated disease prediction scores, through calibration that converts a cut-off score for each disease, which makes the specific reading sensitivity, into the cut-off score, and determining a maximum value among the calibrated disease prediction scores as the abnormality score.
A method for operating a security accelerator device , comprising: storing, in non-volatile memory , a first credential that is uniquely associated with the security accelerator device and represents a root of trust to a trusted entity , wherein this first credential is a private key of a public/private key pair of the security accelerator device ; receiving, by the security accelerator device , from a client entity , a symmetric wrapper key, SWK , that is encrypted with the public key of the security accelerator device ; establishing, by the security accelerator device , a cryptographic trust relationship with the client entity that is based on the root of trust, the cryptographic trust relationship being represented by a second credential, wherein this second credential is the SWK decrypted by the security accelerator device ; receiving, from the client entity , a secret client credential belonging to the client entity that is encrypted with the SWK , and decrypting, by the security accelerator device , this secret client credential ; storing, by the security accelerator device , the decrypted secret client credential ; receiving, from the client entity , a message M that is encrypted with the SWK ; executing, by the security accelerator device , a cryptographic asymmetric key-related computation on the message M using the secret client credential on behalf of the client entity to produce a message N as the computation result; and encrypting, by the security accelerator device , the message N with the SWK , and passing the encrypted message N back to the client entity . storing, in non-volatile memory , a first credential that is uniquely associated with the security accelerator device and represents a root of trust to a trusted entity , wherein this first credential is a private key of a public/private key pair of the security accelerator device ; receiving, by the security accelerator device , from a client entity , a symmetric wrapper key, SWK , that is encrypted with the public key of the security accelerator device ; establishing, by the security accelerator device , a cryptographic trust relationship with the client entity that is based on the root of trust, the cryptographic trust relationship being represented by a second credential, wherein this second credential is the SWK decrypted by the security accelerator device ; receiving, from the client entity , a secret client credential belonging to the client entity that is encrypted with the SWK , and decrypting, by the security accelerator device , this secret client credential ; storing, by the security accelerator device , the decrypted secret client credential ; receiving, from the client entity , a message M that is encrypted with the SWK ; executing, by the security accelerator device , a cryptographic asymmetric key-related computation on the message M using the secret client credential on behalf of the client entity to produce a message N as the computation result; and encrypting, by the security accelerator device , the message N with the SWK , and passing the encrypted message N back to the client entity .
A motor connectable to a single phase AC power supply and forming a hermetic compressor, the motor comprising a main circuit and an auxiliary circuit, the main circuit being connected in parallel with the auxiliary circuit, the motor further comprising a winding structure comprising a main winding arranged in the main circuit and an auxiliary winding arranged in the auxiliary circuit, the motor further comprising a rotor arranged to be rotated by a magnetic field generated in the winding structure, wherein - the auxiliary circuit comprises a first section and a second section, - the first and second section extend in an electrically parallel connection, - current in the first section is limited by a NTC , - the second section includes a PTC , and - a relay is arranged to activate and deactivate current in the first section of the auxiliary circuit without deactivating a current through the PTC in the second section, the relay being controlled by a current level in the main circuit, the motor further comprising a start capacitor, CS, serial with the auxiliary winding, CS being disconnected by the relay. - the auxiliary circuit comprises a first section and a second section, - the first and second section extend in an electrically parallel connection, - current in the first section is limited by a NTC , - the second section includes a PTC , and - a relay is arranged to activate and deactivate current in the first section of the auxiliary circuit without deactivating a current through the PTC in the second section, the relay being controlled by a current level in the main circuit,
An indoor unit of an air conditioner, which comprises a cabinet to be installed at a ceiling of an indoor space; a front panel configured to shield the cabinet , and having a suction port through which indoor air is suctioned and panel outlet ports through which heat-exchanged air is discharged; a fan provided at an inside of the cabinet ; a heat exchanger provided inside the cabinet , and disposed to surround a perimeter of the fan ; supporting guides installed on the cabinet between the heat exchanger and the fan , and configured to guide the air discharged from the fan to be distributed and discharged toward the panel outlet ports , characterized by a drain pan assembly installed at an opened surface of the cabinet , and having a recessed portion at each of both side ends thereof so that outlet ports corresponding to the panel outlet ports are formed by being coupled to the cabinet , wherein the panel outlet ports are formed at an outer side further than the heat exchanger ; wherein the panel outlet ports are formed at each of both side locations of the front panel which face each other, and wherein the supporting guides are provided at each of both sides corresponding to locations of the panel outlet ports .
An apparatus of an enhanced node B, eNB , comprising: storage configured to store connection information for a UE, the connection information including wireless local area network termination, WT, information; a processor configured to: generate a WT addition message for a target WT ; process a WT addition request acknowledge message from the target WT ; generate a connection reconfiguration request for a user equipment, UE ; process a connection reconfiguration request complete message from the UE ; process an association confirmation message, and generate a WT release request for a source WT to release allocated WLAN resources; wherein to generate the WT release request further includes generating the WT release request after the connection reconfiguration request. storage configured to store connection information for a UE, the connection information including wireless local area network termination, WT, information; a processor configured to: generate a WT addition message for a target WT ; process a WT addition request acknowledge message from the target WT ; generate a connection reconfiguration request for a user equipment, UE ; process a connection reconfiguration request complete message from the UE ; process an association confirmation message, and generate a WT release request for a source WT to release allocated WLAN resources; wherein to generate the WT release request further includes generating the WT release request after the connection reconfiguration request. generate a WT addition message for a target WT ; process a WT addition request acknowledge message from the target WT ; generate a connection reconfiguration request for a user equipment, UE ; process a connection reconfiguration request complete message from the UE ; process an association confirmation message, and generate a WT release request for a source WT to release allocated WLAN resources; wherein to generate the WT release request further includes generating the WT release request after the connection reconfiguration request.
A sound processing apparatus configured to process a sound signal comprising a target signal and a current noise signal into an enhanced sound signal, wherein the apparatus characterised in that it comprises: processing circuitry configured to provide an adjustable neural network , wherein the adjustable neural network comprises a first neural sub-network and a second neural sub-network and is configured: in a training phase, to be trained using as a first input a training noise signal, as a second input a training sound signal comprising a training target signal and the training noise signal and as a third input the training target signal, and in an application phase, to adjust itself on the basis of the current noise signal and to generate an estimated noise signal on the basis of the sound signal, wherein, in the application phase, the first neural sub-network is configured to generate on the basis of the current noise signal a parameter set describing the current noise signal and to provide the parameter set to the second neural sub-network , wherein the second neural sub-network is configured to adjust on the basis of the parameter set provided by the first neural sub-network ; wherein, in the application phase, the processing circuitry is further configured to process the sound signal into the enhanced sound signal on the basis of the estimated noise signal. processing circuitry configured to provide an adjustable neural network , wherein the adjustable neural network comprises a first neural sub-network and a second neural sub-network and is configured: in a training phase, to be trained using as a first input a training noise signal, as a second input a training sound signal comprising a training target signal and the training noise signal and as a third input the training target signal, and in an application phase, to adjust itself on the basis of the current noise signal and to generate an estimated noise signal on the basis of the sound signal, wherein, in the application phase, the first neural sub-network is configured to generate on the basis of the current noise signal a parameter set describing the current noise signal and to provide the parameter set to the second neural sub-network , wherein the second neural sub-network is configured to adjust on the basis of the parameter set provided by the first neural sub-network ; wherein, in the application phase, the processing circuitry is further configured to process the sound signal into the enhanced sound signal on the basis of the estimated noise signal.
A device adapted to assess the detection capability of an X-ray system which is adapted to screen cargo pallets and/or shipping containers, wherein the X-ray system has a medium, 1 to 1.3 m by 1 to 1.3 m, or large, greater than 1.3 m by 1.3 m, tunnel size, said device having a width of 500 mm to 1250 mm and a height of 500 mm to 1250 mm, or said device having a height of 2 m to 4.5 m and a width of 2 m to 3.2 m, and comprising: • a support capable of holding at least one test module; • at least one test module mounted on the support; and • a stand which holds the support at a predetermined angle to the horizontal, said stand comprising a rotatable holder for holding the support so as to enable the predetermined angle to be varied; • wherein the stand or the support comprises an insertion region configured for insertion of forklift forks or tines; wherein said test module, or at least one of said test modules, is configured to be used in a test of the detection capability of said X-ray system. • a support capable of holding at least one test module; • at least one test module mounted on the support; and • a stand which holds the support at a predetermined angle to the horizontal, said stand comprising a rotatable holder for holding the support so as to enable the predetermined angle to be varied; • wherein the stand or the support comprises an insertion region configured for insertion of forklift forks or tines;
A system comprising: a low side heat exchanger configured to use a refrigerant to cool a space proximate the low side heat exchanger ; a compressor configured to compress refrigerant from the low side heat exchanger ; a high side heat exchanger configured to remove heat from the refrigerant from the compressor , the high side heat exchanger positioned vertically above the compressor ; piping configured to direct refrigerant from the compressor to the high side heat exchanger , the piping comprising: a first P-trap positioned vertically above the compressor and vertically below the high side heat exchanger ; and a second P-trap positioned vertically above the first P-trap and vertically below the high side heat exchanger ; a receiver ; a first valve configured to control a flow of refrigerant and oil from the first P-trap to the receiver ; and a second valve configured to control a flow of refrigerant and oil from the second P-trap to the receiver . a low side heat exchanger configured to use a refrigerant to cool a space proximate the low side heat exchanger ; a compressor configured to compress refrigerant from the low side heat exchanger ; a high side heat exchanger configured to remove heat from the refrigerant from the compressor , the high side heat exchanger positioned vertically above the compressor ; piping configured to direct refrigerant from the compressor to the high side heat exchanger , the piping comprising: a first P-trap positioned vertically above the compressor and vertically below the high side heat exchanger ; and a second P-trap positioned vertically above the first P-trap and vertically below the high side heat exchanger ; a first P-trap positioned vertically above the compressor and vertically below the high side heat exchanger ; and a second P-trap positioned vertically above the first P-trap and vertically below the high side heat exchanger ; a receiver ; a first valve configured to control a flow of refrigerant and oil from the first P-trap to the receiver ; and a second valve configured to control a flow of refrigerant and oil from the second P-trap to the receiver .
A method for a User Equipment, UE, in a wireless communication system, comprising: receiving a first signaling, wherein the first signaling includes an identity of a broadcast or multicast service ; and receiving a second signaling, characterized in that the second signaling indicates an association between a numerology for reception of the broadcast or multicast service and an information of the broadcast or multicast service , wherein the numerology is a set of parameters defining a frame structure and/or subframe structure including at least sub-carrier spacing and the numerology is provided via one of the following: a user service description, USD, a Multicast Control Channel, MCCH, or a system information, SI, for broadcast or multicast; and said method further comprises using the numerology to receive the broadcast or multicast service . receiving a first signaling, wherein the first signaling includes an identity of a broadcast or multicast service ; and receiving a second signaling, characterized in that the second signaling indicates an association between a numerology for reception of the broadcast or multicast service and an information of the broadcast or multicast service , wherein the numerology is a set of parameters defining a frame structure and/or subframe structure including at least sub-carrier spacing and the numerology is provided via one of the following: a user service description, USD, a Multicast Control Channel, MCCH, or a system information, SI, for broadcast or multicast; and said method further comprises using the numerology to receive the broadcast or multicast service .