mhurhangee/ep-ind-claims huggingface dataset:
User equipment, comprising: a first synchronization unit, configured to: when the user equipment accesses a millimeter-wave band network, perform first synchronization in a cellular band by using a cellular band network that covers the millimeter-wave band network; and a second synchronization unit, configured to perform second synchronization in a millimeter-wave band by using the millimeter-wave band network; wherein the first synchronization unit is configured to perform the first synchronization in the cellular band by acquiring a synchronization window in which a primary synchronization signal, PSS, of the cellular band network that covers the millimeter-wave band network is located; wherein the user equipment further comprises: a first receiving unit, configured to receive a synchronization signal that is of the cellular band network and that is transmitted by a cellular band radio frequency, RF, transceiver in a base station, wherein the cellular band RF transceiver is an RF transceiver configured to receive and send data of the cellular band network that covers the millimeter-wave band network, wherein the synchronization signal of the cellular band network is received before the first synchronization in the cellular band is performed. a first synchronization unit, configured to: when the user equipment accesses a millimeter-wave band network, perform first synchronization in a cellular band by using a cellular band network that covers the millimeter-wave band network; and a second synchronization unit, configured to perform second synchronization in a millimeter-wave band by using the millimeter-wave band network; wherein the first synchronization unit is configured to perform the first synchronization in the cellular band by acquiring a synchronization window in which a primary synchronization signal, PSS, of the cellular band network that covers the millimeter-wave band network is located; wherein the user equipment further comprises: a first receiving unit, configured to receive a synchronization signal that is of the cellular band network and that is transmitted by a cellular band radio frequency, RF, transceiver in a base station, wherein the cellular band RF transceiver is an RF transceiver configured to receive and send data of the cellular band network that covers the millimeter-wave band network, wherein the synchronization signal of the cellular band network is received before the first synchronization in the cellular band is performed.
Cell for a fuel cell comprising an anode monopolar plate configured to distribute a gas on an active portion of one of its faces, a membrane-electrode assembly arranged with a first face on said active portion, a cathode monopolar plate configured to distribute a gas on an active portion of one of its faces, said active portion being arranged on the second face of said membrane-electrode assembly, said monopolar plates each including, besides said active portion, a gas supply opening, wherein it comprises in addition a distribution seal arranged against each of said monopolar plates, around said gas supply opening and on the face opposite the active portion, wherein said monopolar plates include orifices ending into the face opposite said active portion, said distribution seal and said orifices being configured for said gas to be led onto the side opposite the active portion of said gas supply opening, towards the orifices, and from there towards the active portion.
An immersion exposure apparatus for exposing a substrate with an exposure beam via an optical element and immersion liquid, comprising: a table for mounting the substrate; a pad which is positionable under the optical element; and a holding member arranged to hold the pad such that the pad is located opposed to the optical element, wherein each of the table and the pad are configured to maintain immersion liquid below the optical element when located opposed to the optical element, wherein the pad is positionable to be away from a position below the optical element when the substrate, mounted on the table, is located opposed to the optical element, and wherein the table is movable to be away from below the optical element while the pad is held opposed to the optical element. a table for mounting the substrate; a pad which is positionable under the optical element; and a holding member arranged to hold the pad such that the pad is located opposed to the optical element, wherein each of the table and the pad are configured to maintain immersion liquid below the optical element when located opposed to the optical element, wherein the pad is positionable to be away from a position below the optical element when the substrate, mounted on the table, is located opposed to the optical element, and wherein the table is movable to be away from below the optical element while the pad is held opposed to the optical element.
A microreactor provided with fluid pumps (20A, 20B, 20C, 20D; 22A, 22B, 22C, 22D; 24A, 24B, 24C, 24D) comprising a network of interconnected microstructures (14, 50, 40) being multilayer microfluidic and/or honeycomb-body based microfluidic devices (210, 312) and arranged in m process units, said process units configured to be operable together in parallel, each of the m process units having a number n of respective process fluid inlets, wherein a number y of the n respective ones among the process fluid inlets are connected individually to respective non-manifolded ones among the fluid pumps (20A, 20B, 20C, 20D; 22A, 22B, 22C, 22D; 24A, 24B, 24C, 24D), and wherein a number n-y of the n respective process fluid inlets are connected to a respective manifolded fluid pump (20, 22, 24, 26, 28, 30) via a manifold, wherein y is an integer from 1 to n-1 inclusive, wherein the microreactor comprises first and second thermal control fluid pumps (32, 34) each connected via a thermal control fluid manifold (60, 60A, 60B) to two or more of the plurality of interconnected microstructures (14, 40, 50), the first thermal control fluid pump being connected via the respective thermal control fluid manifold to one of the microstructures in each process unit with only one process fluid inlet, and the second thermal control fluid pump being connected to each process unit via a respective sub-manifold (60A, 60B) of the respective thermal control manifold connected to each microstructure arranged in said process unit which has two or more process fluid inlets.
A method for facilitating use of machine learning models in a mobile communication system comprising a plurality of machine learning model providers, at least one of the plurality of machine learning model providers being a network data analytics function, NWDAF, of the mobile communication system, the method being performed by a broker component maintaining a provider register containing information about the plurality of machine learning model providers and machine learning models provided by the plurality of machine learning model providers, the broker component being discoverable by at least one of a machine learning model consumer and the plurality of machine learning model providers via a network repository function, NRF, of the mobile communication system, the method comprising: receiving a request for a desired machine learning model from the machine learning model consumer; determining, based on the information contained in the provider register, a machine learning model among the machine learning models provided by the machine learning model providers that matches the desired machine learning model; and sending a response to the machine learning model consumer providing information associated with the determined machine learning model, wherein the request is at least one of (i) a request to obtain the desired machine learning model for use at the machine learning model consumer, (ii) a request to subscribe for obtaining the desired machine learning model for use at the machine learning model consumer, and (iii) a request to obtain access information to a machine learning model provider providing a machine learning model that matches the desired machine learning model. receiving a request for a desired machine learning model from the machine learning model consumer; determining, based on the information contained in the provider register, a machine learning model among the machine learning models provided by the machine learning model providers that matches the desired machine learning model; and sending a response to the machine learning model consumer providing information associated with the determined machine learning model, wherein the request is at least one of (i) a request to obtain the desired machine learning model for use at the machine learning model consumer, (ii) a request to subscribe for obtaining the desired machine learning model for use at the machine learning model consumer, and (iii) a request to obtain access information to a machine learning model provider providing a machine learning model that matches the desired machine learning model.
A femoral arterial cannula comprising: an elongated hollow cannula body having distal and proximal open ends; a balloon situated on said body adjacent to said distal end; inflation means connected to said balloon for inflating said balloon; four blood flow exit ports situated in said cannula body between said balloon and said distal end, two of said distal exit ports in-line with one-another along said cannula body and two other distal exit ports being 180° circumferentially offset from the first two distal exit ports; and two blood flow exit ports situated in said cannula body between said balloon and said proximal end, said proximal exit ports being 180° circumferentially offset and longitudinally offset from one-another, wherein: the distal end is a tip of the elongated hollow cannula body, and the proximal end is at the opposite end of the elongated hollow cannula body from the distal end. an elongated hollow cannula body having distal and proximal open ends; a balloon situated on said body adjacent to said distal end; inflation means connected to said balloon for inflating said balloon; four blood flow exit ports situated in said cannula body between said balloon and said distal end, two of said distal exit ports in-line with one-another along said cannula body and two other distal exit ports being 180° circumferentially offset from the first two distal exit ports; and two blood flow exit ports situated in said cannula body between said balloon and said proximal end, said proximal exit ports being 180° circumferentially offset and longitudinally offset from one-another, wherein: the distal end is a tip of the elongated hollow cannula body, and the proximal end is at the opposite end of the elongated hollow cannula body from the distal end. the distal end is a tip of the elongated hollow cannula body, and the proximal end is at the opposite end of the elongated hollow cannula body from the distal end.
Method of processing electronic devices comprising: obtaining a first article comprising a first thin glass sheet coupled to a carrier, wherein the carrier has a first QCOLED compaction value; subjecting the first article to a first processing cycle to form a first device on the first thin glass sheet, wherein the first processing cycle comprises heat treating the carrier, so that after the first processing cycle, the carrier has a second QCOLED compaction value that is less than the first QCOLED compaction value, wherein the QCOLED compaction values are measured according to the method described at paragraphs - of the description; removing the first thin glass sheet from the carrier; and subjecting the carrier to a second processing cycle (P4, P6), to form a second device (50, 60) on the carrier characterised in that the second processing cycle is different to the first processing cycle. obtaining a first article comprising a first thin glass sheet coupled to a carrier, wherein the carrier has a first QCOLED compaction value; subjecting the first article to a first processing cycle to form a first device on the first thin glass sheet, wherein the first processing cycle comprises heat treating the carrier, so that after the first processing cycle, the carrier has a second QCOLED compaction value that is less than the first QCOLED compaction value, wherein the QCOLED compaction values are measured according to the method described at paragraphs - of the description; removing the first thin glass sheet from the carrier; and subjecting the carrier to a second processing cycle (P4, P6), to form a second device (50, 60) on the carrier characterised in that the second processing cycle is different to the first processing cycle.
A single cell, wherein the single cell comprises a case, a battery cell accommodated in the case, an electrode terminal electrically connected to the battery cell, and a cover plate for encapsulating the case, wherein the electrode terminal is disposed in the cover plate, the single cell further comprises a current interrupt device electrically connected to the electrode terminal, and the current interrupt device is in communication with gas inside the case; the electrode terminal comprises a battery post, wherein one end of the battery post extends into the cover plate and the other end is electrically connected to the battery cell; the current interrupt device has a conductive member and a flipping member electrically connected to the conductive member, the flipping member and the conductive member can be electrically disconnected from each other under action of air pressure, the conductive member is connected to an outer end surface of the battery post, characterised in that a ceramic ring is tightly connected between an outer periphery of the flipping member and the cover plate, and the outer periphery of the flipping member is tightly connected to an outer end surface of the ceramic ring; and an outer periphery of the battery post is connected to an inner end surface of the ceramic ring, and the battery post is insulated from the outer periphery of the flipping member by using the ceramic ring.
Gas turbine component, in particular a guide vane cluster, comprising at least one radial flange (12, 13) having a radial groove for spoke-centering of a gas turbine element, in particular an inner ring, in which spoke-centering a web of the gas turbine element engages into the radial groove or engages through the radial groove, the radial groove comprising a first groove flank, an adjoining groove base and an adjoining second groove flank, characterized in that the groove base is asymmetrical to a central plane which extends radially and perpendicularly to the circumferential direction and centrally between the two groove flanks (21, 22).
A terminal device comprising: reception unit configured and/or programmed to receive a downlink control information, DCI, format using a downlink control channel, and receive information indicating an uplink-downlink configuration 0; and transmission unit configured and/or programmed to transmit information using a physical uplink shared channel, PUSCH, wherein the DCI format includes an uplink index field and a hybrid automatic repeat request, HARQ, process number, in a case that both a first bit of the uplink index in the uplink index field and a second bit of the uplink index in the uplink index field are set to 1, the HARQ process number of the PUSCH corresponding to the first bit is X and the HARQ process number of the PUSCH corresponding to the second bit is mod (X+1, Z), the mod (X+1, Z) being a function outputting a remainder when dividing (X+1) by Z, the X being determined based on the HARQ process number, and the Z being a value identical to a maximum number of HARQ processes in a serving cell determined by the uplink-downlink configuration, in a case that the first bit is set to 0 and the second bit is set to 1, the HARQ process number of the PUSCH corresponding to the second bit is the X. reception unit configured and/or programmed to receive a downlink control information, DCI, format using a downlink control channel, and receive information indicating an uplink-downlink configuration 0; and receive a downlink control information, DCI, format using a downlink control channel, and receive information indicating an uplink-downlink configuration 0; transmission unit configured and/or programmed to transmit information using a physical uplink shared channel, PUSCH, wherein the DCI format includes an uplink index field and a hybrid automatic repeat request, HARQ, process number, in a case that both a first bit of the uplink index in the uplink index field and a second bit of the uplink index in the uplink index field are set to 1, the HARQ process number of the PUSCH corresponding to the first bit is X and the HARQ process number of the PUSCH corresponding to the second bit is mod (X+1, Z), the mod (X+1, Z) being a function outputting a remainder when dividing (X+1) by Z, the X being determined based on the HARQ process number, and the Z being a value identical to a maximum number of HARQ processes in a serving cell determined by the uplink-downlink configuration, in a case that the first bit is set to 0 and the second bit is set to 1, the HARQ process number of the PUSCH corresponding to the second bit is the X.
A short-range optical amplification module, comprising: a first phase delay plate, a transflective mirror, a second phase delay plate and a reflective polarizing plate that are arranged sequentially, wherein: the transflective mirror includes a first optical surface and a second optical surface; the first optical surface is adjacent to the second phase delay plate; the second optical surface is a transflective optical surface, and the second optical surface is adjacent to the first phase delay plate; characterized in that the focal length fs2 of the reflection surface of the second optical surface meets the following condition: 1.5F≤fs2≤3F, wherein F is the system focal length of the short-range optical amplification module, and F meets the following condition: 10mm≤F≤35mm. the transflective mirror includes a first optical surface and a second optical surface; the first optical surface is adjacent to the second phase delay plate; the second optical surface is a transflective optical surface, and the second optical surface is adjacent to the first phase delay plate; characterized in that the focal length fs2 of the reflection surface of the second optical surface meets the following condition: 1.5F≤fs2≤3F, wherein F is the system focal length of the short-range optical amplification module, and F meets the following condition: 10mm≤F≤35mm.
A method for preparing a polyaniline complex for antimicrobial activity and heavy metal removal efficiency, the method comprising: (a) synthesizing a polyaniline emeraldine base in the form of a nano-fiber using a conventional interfacial polymerization; (b) doping the polyaniline emeraldine base of the step (a) with an organic acid to prepare a polyaniline emeraldine salt complex; and (c) doping the polyaniline emeraldine salt complex of the step (b) with a metal ion or a metal salt to prepare an insoluble polyaniline/metal complex; wherein the organic acid of the step (b) has a carboxyl group; and further wherein the organic acid of the step (b) is ethylenediaminetetraacetic acid (EDTA); and wherein metal ion or a metal salt of step (c) is an antimicrobial metal or metal salt which includes at least one of silver, copper, zinc, and alumina, which may be used alone or in combination. (a) synthesizing a polyaniline emeraldine base in the form of a nano-fiber using a conventional interfacial polymerization; (b) doping the polyaniline emeraldine base of the step (a) with an organic acid to prepare a polyaniline emeraldine salt complex; and (c) doping the polyaniline emeraldine salt complex of the step (b) with a metal ion or a metal salt to prepare an insoluble polyaniline/metal complex; wherein the organic acid of the step (b) has a carboxyl group; and further wherein the organic acid of the step (b) is ethylenediaminetetraacetic acid (EDTA); and wherein metal ion or a metal salt of step (c) is an antimicrobial metal or metal salt which includes at least one of silver, copper, zinc, and alumina, which may be used alone or in combination.
A method for transilluminating products of a product stream by means of X-radiation, wherein the products are conveyed in the conveying direction before the transillumination in a product stream in a number n of lanes parallel to each other, characterised in that a plurality of products (5a, 5b, 5c, 5d) that are adjacent transversely to the product stream are transferred as a group together into a radiation-protected transillumination room, and the products (5a, 5b, 5c, 5d) are rearranged for a transillumination process in the transillumination room in that the products are serialized before or during the transillumination process in such a way that the products (5a, 5b, 5c, 5d) are moved in a conveying direction during a transillumination process in a number m of lanes relative to a transillumination beam through this transillumination beam, wherein the number m is smaller than the number n and greater than or equal to 1.
A network element for a cloud computing environment for an IP-based communication network, wherein said cloud computing environment being an Internet-based computing environment that provides, on demand, networking resources and data to devices comprised in said IP-based communication network, for running at least a first software application and a second software application and wherein said network element is configured to manage networking resources by affecting changes at the network level of networking resources associated with the communication network that are being utilized by said first software application wherein said changes are affected in response to obtaining information retrieved from an application program interface, API, associated with said first software application, and wherein said obtained information comprises network related control and commands, and information that relates to usage of said first software application by users communicating with said first software application, and in case that said second software application has a low demand for networking resources, then said first software application is configured to use these networking resources on request, and wherein said first software application is configured to assess a new user's experience of users communicating with said first software application, achieved after said change in the networking resources has been affected.
A suitable apparatus for aiding in upper limb in one side the rehabilitation therapy of patients with brain damage comprising: - a base (1.1) on which there is a first arm (1.2) intended for holding and guiding the distal end (P 1) of the arm of the patient, - a second arm (1.3) on the same base (1.1) for holding and guiding the arm (P 2) of the patient, - the base (1.1) has an area intended for situating the patient wherein, this second arm (1.3) has a rotating support (1.3.1) such that the end of this rotating support (1.3.1) can be arranged on either side of the area intended for situating the patient to allow access by means of the second arm (1.3) to either side of the patient, characterized in that the second arm (1.3) has a ball joint (1.3.2) combining two independent angular rotations (E1, E2) and an axially extendable section (1.3.3) extends from this ball joint (1.3.2) until reaching fixing means (1.3.4) for being fixed to the elbow of the patient. - a base (1.1) on which there is a first arm (1.2) intended for holding and guiding the distal end (P 1) of the arm of the patient, - a second arm (1.3) on the same base (1.1) for holding and guiding the arm (P 2) of the patient, - the base (1.1) has an area intended for situating the patient wherein, this second arm (1.3) has a rotating support (1.3.1) such that the end of this rotating support (1.3.1) can be arranged on either side of the area intended for situating the patient to allow access by means of the second arm (1.3) to either side of the patient, characterized