mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communications performed by an enhanced machine-type communication, eMTC, user equipment, UE,, comprising: identifying at least one narrowband region within a wider system bandwidth; receiving signaling, from a base station, indicating a sub-region of the narrowband region assigned to the eMTC UE for transmitting symbols of a physical uplink channel that are multiplexed with symbols transmitted by one or more other UEs in the narrowband region; identifying a frequency hopping pattern; using the frequency hopping pattern to select frequency resources for transmitting symbols of the physical uplink channel in the assigned sub-region; and transmitting the physical uplink channel in the assigned sub-region, wherein using the frequency hopping pattern to select frequency resources for transmitting symbols of the physical uplink channel in the assigned sub-region comprises: retuning, based on the frequency hopping pattern, from a first frequency used in a first subframe or slot in the assigned sub-region to a second frequency used in a second subframe or slot in the assigned sub-region, wherein the retuning from the first frequency to the second frequency may occur during a last one or more symbols of the first subframe or slot or a first one or more symbols of the second subframe or slot respectively. identifying at least one narrowband region within a wider system bandwidth; receiving signaling, from a base station, indicating a sub-region of the narrowband region assigned to the eMTC UE for transmitting symbols of a physical uplink channel that are multiplexed with symbols transmitted by one or more other UEs in the narrowband region; identifying a frequency hopping pattern; using the frequency hopping pattern to select frequency resources for transmitting symbols of the physical uplink channel in the assigned sub-region; and transmitting the physical uplink channel in the assigned sub-region, wherein using the frequency hopping pattern to select frequency resources for transmitting symbols of the physical uplink channel in the assigned sub-region comprises: retuning, based on the frequency hopping pattern, from a first frequency used in a first subframe or slot in the assigned sub-region to a second frequency used in a second subframe or slot in the assigned sub-region, wherein the retuning from the first frequency to the second frequency may occur during a last one or more symbols of the first subframe or slot or a first one or more symbols of the second subframe or slot respectively.
A defibrillator comprising: an accessory cable port disposed on an exterior surface of the defibrillator and configured to receive a connector of an accessory cable; a port guard partially surrounding the accessory cable port and protruding from the exterior surface of the defibrillator; and a storage bag (310, 320, 330) coupled to a portion of the defibrillator; wherein: the port guard is disposed within an opening (317, 318) defined in a portion of the storage bag; the port guard extends into an interior of the storage bag configured to store an accessory; and the opening defined in the portion of the storage bag is configured to allow the accessory to be coupled to the accessory cable port while the accessory is stored within the interior of the storage bag and while the storage bag is closed. an accessory cable port disposed on an exterior surface of the defibrillator and configured to receive a connector of an accessory cable; a port guard partially surrounding the accessory cable port and protruding from the exterior surface of the defibrillator; and a storage bag (310, 320, 330) coupled to a portion of the defibrillator; wherein: the port guard is disposed within an opening (317, 318) defined in a portion of the storage bag; the port guard extends into an interior of the storage bag configured to store an accessory; and the opening defined in the portion of the storage bag is configured to allow the accessory to be coupled to the accessory cable port while the accessory is stored within the interior of the storage bag and while the storage bag is closed. the port guard is disposed within an opening (317, 318) defined in a portion of the storage bag; the port guard extends into an interior of the storage bag configured to store an accessory; and the opening defined in the portion of the storage bag is configured to allow the accessory to be coupled to the accessory cable port while the accessory is stored within the interior of the storage bag and while the storage bag is closed.
A method for scanning and imaging, comprising: generating first inspection data correspondingly according to a first predetermined displacement of an object to be inspected by a first inspection device in a first inspection interval of the first inspection device between a first position and a third position; generating second inspection data correspondingly according to a second predetermined displacement of the object by a second inspection device in a second inspection interval of the second inspection device between a second position and a fourth position; converting the first inspection data into a first scanned image; converting the second inspection data into a second scanned image; and merging the first scanned image and the second scanned image; wherein the first predetermined displacement is equal to the second predetermined displacement, characterized in that the first inspection interval and the second inspection interval are spaced from each other, and wherein the first inspection interval is equal to the second inspection interval. generating first inspection data correspondingly according to a first predetermined displacement of an object to be inspected by a first inspection device in a first inspection interval of the first inspection device between a first position and a third position; generating second inspection data correspondingly according to a second predetermined displacement of the object by a second inspection device in a second inspection interval of the second inspection device between a second position and a fourth position; converting the first inspection data into a first scanned image; converting the second inspection data into a second scanned image; and merging the first scanned image and the second scanned image; wherein the first predetermined displacement is equal to the second predetermined displacement, characterized in that the first inspection interval and the second inspection interval are spaced from each other, and wherein the first inspection interval is equal to the second inspection interval.
A computer readable storage medium, wherein the computer readable storage medium stores a program, characterized by, when program is executed by a processor, the steps are performed: receiving, by a base station, a first notification, which is sent by a multi-cell/multicast coordination entity, for stopping scheduling of a multimedia broadcast multicast service MBMS service, wherein the first notification for stopping scheduling of the MBMS service is a notification that is sent by the multi-cell/multicast coordination entity to the base station when the multi-cell/multicast coordination entity determines to suspend the MBMS service; sending, by the base station, MBMS service scheduling stop information to user equipment according to the first notification for stopping scheduling of the MBMS service, wherein the MBMS service scheduling stop information carries an indication indicating that scheduling of the MBMS service is to be stopped to notify the user equipment that scheduling of the MBMS service is to be stopped; and continuing to schedule, by the base station, the MBMS service until a predetermined condition is met, and then, stopping scheduling the MBMS service. receiving, by a base station, a first notification, which is sent by a multi-cell/multicast coordination entity, for stopping scheduling of a multimedia broadcast multicast service MBMS service, wherein the first notification for stopping scheduling of the MBMS service is a notification that is sent by the multi-cell/multicast coordination entity to the base station when the multi-cell/multicast coordination entity determines to suspend the MBMS service; sending, by the base station, MBMS service scheduling stop information to user equipment according to the first notification for stopping scheduling of the MBMS service, wherein the MBMS service scheduling stop information carries an indication indicating that scheduling of the MBMS service is to be stopped to notify the user equipment that scheduling of the MBMS service is to be stopped; and continuing to schedule, by the base station, the MBMS service until a predetermined condition is met, and then, stopping scheduling the MBMS service.
An additive manufacturing system comprising: a build plate having at least one indentation; a primary insert within the at least one indentation and configured to provide a surface upon which a component can be formed; a first support insert within the at least one indentation and configured to provide a surface upon which a first support structure can be formed,; a material depositor configured to provide material to form the component and the first support structure; and a first energy source configured to change a state of the material to form the component and the first support structure; and the system characterized by further comprising: a second energy source configured to heat the build plate to cause the build plate to expand to allow the primary insert and the first support insert to be placed within the at least one indentation; and a cooling source configured to cool the primary insert and the first support insert to cause the primary insert and the first support insert to contract to allow for the primary insert and the first support insert to be removed from the at least one indentation. a build plate having at least one indentation; a primary insert within the at least one indentation and configured to provide a surface upon which a component can be formed; a first support insert within the at least one indentation and configured to provide a surface upon which a first support structure can be formed,; a material depositor configured to provide material to form the component and the first support structure; and a first energy source configured to change a state of the material to form the component and the first support structure; and the system characterized by further comprising: a second energy source configured to heat the build plate to cause the build plate to expand to allow the primary insert and the first support insert to be placed within the at least one indentation; and a cooling source configured to cool the primary insert and the first support insert to cause the primary insert and the first support insert to contract to allow for the primary insert and the first support insert to be removed from the at least one indentation.
A processing medium for processing stainless steel or other metallic surfaces, wherein said processing medium is adapted to be ejected out of a nozzle of a process gun by compressed air, said processing medium consists out of a suspension comprising a liquid and a mixture of at least two different types of products consisting of chemically inert abrasive particles, CHARACTERISED IN THAT said particles at least comprise particles having an irregular shape, said particles being dispersable in said liquid, said irregular shaped particles consist of fused alumina particles, said fused alumina particles are substantially iron-free.
A solid oxide fuel cell comprising an electrode-electrolyte assembly and an interconnect in communication with the electrode-electrolyte assembly, wherein the interconnect comprises a carbon matrix composite, wherein the interconnect includes an inner core and an outer surface and has a porosity that increases from the inner core to the outer surface.
A method for anodizing an aluminum alloy, the method comprising: reducing iron concentration in the aluminum alloy to obtain a concentration of iron below 0,12 wt%; heating the aluminum alloy at a first temperature for a first period of time that is at least as high as a recrystallization temperature of the aluminum alloy to grow average grain size of the aluminum alloy to at least 100 μm; aging the aluminum alloy at a second temperature for a second period of time, the second temperature lower than the first temperature, wherein the aging enhances strength of the aluminum alloy; and rendering grain boundaries of the aluminum alloy visible to a human eye; etching grain boundaries of the aluminum alloy; anodizing the aluminum alloy with a first color, wherein the anodizing causes grain boundaries and grains of the aluminum alloy to be coated with an anodic oxide layer of the first color; removing the anodic oxide layer of the first color from the grains of the aluminum alloy; and anodizing the aluminum alloy with a second color, wherein the anodizing causes the grains of the aluminum alloy to be coated with an anodic oxide layer of the second color. reducing iron concentration in the aluminum alloy to obtain a concentration of iron below 0,12 wt%; heating the aluminum alloy at a first temperature for a first period of time that is at least as high as a recrystallization temperature of the aluminum alloy to grow average grain size of the aluminum alloy to at least 100 μm; aging the aluminum alloy at a second temperature for a second period of time, the second temperature lower than the first temperature, wherein the aging enhances strength of the aluminum alloy; and rendering grain boundaries of the aluminum alloy visible to a human eye; etching grain boundaries of the aluminum alloy; anodizing the aluminum alloy with a first color, wherein the anodizing causes grain boundaries and grains of the aluminum alloy to be coated with an anodic oxide layer of the first color; removing the anodic oxide layer of the first color from the grains of the aluminum alloy; and anodizing the aluminum alloy with a second color, wherein the anodizing causes the grains of the aluminum alloy to be coated with an anodic oxide layer of the second color.
A passenger carrier, such as a bicycle trailer, with a wheel arrangement, said passenger carrier comprising a carrier frame and having a longitudinal direction constituting a travelling direction of said passenger carrier and a transverse direction perpendicular to said longitudinal direction, said wheel arrangement comprising a front wheel pivotably attached to a frame connecting member, wherein said carrier frame comprises a connecting axis arranged in said transverse direction of said passenger carrier, characterized in that said frame connecting member comprises a connecting hook arranged to engage with said connecting axis, said connecting hook having a width (w) in said transverse direction of said passenger carrier and being configured to fit on said connecting axis and to receive said connecting axis in an elongated receiving cavity extending in said transverse direction over the full width (w) of said connecting hook said connecting hook being arranged to be rotated on said connecting axis between an in-use position and a storage position, said wheel arrangement comprising a locking arrangement (30, 34, 35, 36) for locking said front wheel in said in-use position and in said storage position.
Co-micronization product comprising: - an active ingredient selected from the group consisting of selective progesterone receptor modulators, metabolites thereof and mixtures thereof, and - a polymeric excipient selected from the group consisting of polymers based on N-vinyl-2-pyrrolidone and mixtures thereof. - an active ingredient selected from the group consisting of selective progesterone receptor modulators, metabolites thereof and mixtures thereof, and - a polymeric excipient selected from the group consisting of polymers based on N-vinyl-2-pyrrolidone and mixtures thereof.
A wireless communication method, comprising: sending, by a first network node, a load request message to a second network node, wherein the load request message makes a request for the second network node to report load information to the first network node, and wherein the load request message indicates a load object of the load information on which the second network node is requested to report; and receiving, by the first network node from the second network node, the load information; wherein the second network node and the first network node belong to different logical nodes in a network, wherein the load object includes resource usage information corresponding to each slice of a cell, a hardware resource load status of the second network node, and a number of active users of the cell. sending, by a first network node, a load request message to a second network node, wherein the load request message makes a request for the second network node to report load information to the first network node, and wherein the load request message indicates a load object of the load information on which the second network node is requested to report; and receiving, by the first network node from the second network node, the load information; wherein the second network node and the first network node belong to different logical nodes in a network,
A method of providing depth camera compatibility, the method comprising: receiving a native depth image from a time-of-flight depth camera connected to a depth image consumer, wherein the native depth image has an unsupported type that is not supported by a depth image consumer; processing the native depth image into an emulation depth image of reduced or modified content relative to the native depth image, the emulation depth image usable by the depth image consumer, wherein the emulation depth image has a type that is supported by the depth image consumer, where the emulation depth image emulates a depth image produced by a structured light depth camera; and outputting the emulation depth image having the supported type. receiving a native depth image from a time-of-flight depth camera connected to a depth image consumer, wherein the native depth image has an unsupported type that is not supported by a depth image consumer; processing the native depth image into an emulation depth image of reduced or modified content relative to the native depth image, the emulation depth image usable by the depth image consumer, wherein the emulation depth image has a type that is supported by the depth image consumer, where the emulation depth image emulates a depth image produced by a structured light depth camera; and outputting the emulation depth image having the supported type.
A compound for use in the treatment or prevention of a bacterial infection, wherein the compound is selected from the group consisting of: MC4-19: MC4-30: MC4-29: MC4-32: MC4-31: MC4-34: MC4-33: MC4-36: MC4-35: MC4-38: MC4-37: MC4-39: MC4-41: MC4-42: MC4-43: MC4-44: MC4-60: MC4-59: MC4-62: MC4-61: MC4-72: MC4-77: MC4-78: MC4-81: MC4-84: MC4-89: MC4-86: MC4-91: MC4-88: MC4-93: MC4-92: MC4-95: MC4-94: MC4-103: MC4-100: MC4-107: MC4-104: MC4-113: MC4-108: MC4-115: MC4-112: MC4-123: MC4-116: MC4-127: MC4-124: MC4-133: and MC4-138: or a pharmaceutically acceptable salt or a solvate thereof.
A piston, in particular for use as a discharge and/or locking piston of a cartridge, with a base body that has a lateral wall provided with sealants (14, 17) and a front-end wall having a vent, wherein in the vent a locking element is mounted rotatable, wherein a venting channel (23, 24) can be opened or closed in the vent by a relative rotation of the locking element, characterized in that the locking element comprises a plate that covers the front-end wall at least in sections.
A moisture-proof lamp, having - a housing, - a light-permeable cover, which is held on the housing, in such a manner that an inner space of the moisture-proof lamp is formed by the housing and the cover, - an electrical lamp arranged in the inner space, wherein a through-opening is formed in the housing for a power cable for the power supply of the lamp, - an electrical connecting element arranged in the inner space for the electrical connection of the power cable with at least one electrical conductor for the power supply of the lamp, wherein the housing also has an access opening, which is designed in such a manner that the connecting element can by electrically connected with the power cable using the access opening, furthermore having - a support component, wherein the connecting element is arranged fixed on the support component, characterized in that the moisture-proof lamp is designed in such a manner that the support component can be bent reversibly from an operating state provided for an operation of the moisture-proof lamp into a bent state, wherein the connecting element is located in the bent state closer to the access opening than in the operating state. - a housing, - a light-permeable cover, which is held on the housing, in such a manner that an inner space of the moisture-proof lamp is formed by the housing and the cover, - an electrical lamp arranged in the inner space, wherein a through-opening is formed in the housing for a power cable for the power supply of the lamp, - an electrical connecting element arranged in the inner space for the electrical connection of the power cable with at least one electrical conductor for the power supply of the lamp, wherein the housing also has an access opening, which is designed in such a manner that the connecting element can by electrically connected with the power cable using the access opening, furthermore having - a support component, wherein the connecting element is arranged fixed on the support component,
A method of rendering a motion model of a heart by a computing device, the method comprising: receiving location data associated with a cardiac wall motion during a cardiac cycle; dividing the cardiac cycle into incremental phases, each of the incremental phases associated with a different cardiac phase; assigning the location data associated with the cardiac wall motion to the incremental phases; determining, a fiducial pair of coordinates for each of the incremental phases, wherein the fiducial pair of coordinates includes location data for an intermediate cardiac phase and location data for a reference cardiac phase; constructing a fiducial loop from the fiducial pair of coordinates for each of the incremental phases; determining a learned cardiac mapping between the reference cardiac phase and the intermediate cardiac phase using the fiducial loop, including computing a geometry of the heart for at last one incremented phase; and displaying the geometry of the heart based on a current cardiac phase of the cardiac cycle. receiving location data associated with a cardiac wall motion during a cardiac cycle; dividing the cardiac cycle into incremental phases, each of the incremental phases associated with a different cardiac phase; assigning the location data associated with the cardiac wall motion to the incremental phases; determining, a fiducial pair of coordinates for each of the incremental phases, wherein the fiducial pair of coordinates includes location data for an intermediate cardiac phase and location data for a reference cardiac phase; constructing a fiducial loop from the fiducial pair of coordinates for each of the incremental phases; determining a learned cardiac mapping between the reference cardiac phase and the intermediate cardiac phase using the fiducial loop, including computing a geometry of the heart for at last one incremented phase; and displaying the geometry of the heart based on a current cardiac phase of the cardiac cycle.