mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining a molecular structure of a sample , comprising: acquiring multiple diffraction patterns of the sample while tilting the sample relative to an incident beam ; determining an amplitude of a structure factor based on intensities of a diffraction peak in the multiple diffraction patterns; and determining the molecular structure of the sample based on the amplitude of the structure factor and a phase of the structure factor, characterized in that the method further comprises: acquiring a first electron microscopy (EM) image of the sample; after acquiring the first EM image, acquiring a second EM image of the sample with a current density higher than a current density for acquiring the first EM image; and determining the phase of the structure factor based on the first EM image, the second EM image, and the intensities of the diffraction peak in the multiple diffraction patterns. acquiring multiple diffraction patterns of the sample while tilting the sample relative to an incident beam ; determining an amplitude of a structure factor based on intensities of a diffraction peak in the multiple diffraction patterns; and determining the molecular structure of the sample based on the amplitude of the structure factor and a phase of the structure factor, characterized in that the method further comprises: acquiring a first electron microscopy (EM) image of the sample; after acquiring the first EM image, acquiring a second EM image of the sample with a current density higher than a current density for acquiring the first EM image; and determining the phase of the structure factor based on the first EM image, the second EM image, and the intensities of the diffraction peak in the multiple diffraction patterns. acquiring a first electron microscopy (EM) image of the sample; after acquiring the first EM image, acquiring a second EM image of the sample with a current density higher than a current density for acquiring the first EM image; and determining the phase of the structure factor based on the first EM image, the second EM image, and the intensities of the diffraction peak in the multiple diffraction patterns.
A method for multiplexing uplink control information, UCI, performed by a user equipment , UE, the method comprising: receiving , from a base station, BS, a Radio Resource Control, RRC, configuration to configure a first sequence associated with a first RRC parameter and a second sequence associated with a second RRC parameter; receiving , from the BS, a first downlink control information, DCI, format including a first indicator and a second DCI format including a second indicator; determining a first value corresponding to the first indicator based on the first sequence and a second value corresponding to the second indicator based on the second sequence; and multiplexing an uplink control information, UCI, message based on one of the first value and the second value. receiving , from a base station, BS, a Radio Resource Control, RRC, configuration to configure a first sequence associated with a first RRC parameter and a second sequence associated with a second RRC parameter; receiving , from the BS, a first downlink control information, DCI, format including a first indicator and a second DCI format including a second indicator; determining a first value corresponding to the first indicator based on the first sequence and a second value corresponding to the second indicator based on the second sequence; and multiplexing an uplink control information, UCI, message based on one of the first value and the second value.
Material composite consisting of a first material composed of metal and a coating applied to at least one first surface of the first material, said coating containing diamond-like carbon (DLC) and a second material composed of fibre-reinforced plastics connected to the coating, wherein the coating applied to at least one first surface of the first material has, between the diamond-like carbon and the first surface of the first material, an adhesion-improving zone which has a structure which due to a roughening obtained through a mechanical, chemical or physical process and thereby through enlargement of the interaction area between the coating and the second material is suitable for ensuring an interlocking of the coated first surface of the first material with the second material .
A vehicle driver assist system (10; 110) comprising: a housing (12; 112) having a camera mounted therein, the housing (12; 112) having at least one tab (30; 130); and a mounting bracket (14; 114) connectable with the vehicle, the mounting bracket (14; 114) including a channel (20; 120) for receiving the tab (30; 130) on the housing (12; 112), the channel (20; 120) being at least partially defined by an arm extending from a sidewall of the bracket (14; 114), the arm having an end surface and the sidewall having a guide surface , the end surface of the arm and the guide surface at least partially defining an insertion opening that faces generally downwardly, the tab (30; 130) on the housing (12; 112) sliding into the channel (20; 120) in the mounting bracket (14; 114) through the insertion opening to connect the housing (12; 112) to the mounting bracket (14; 114), the housing (12; 112) and the tab (30; 130) being pivotal relative to the bracket (14; 114) after the tab (30; 130) has slid into the channel (20; 120), wherein a V-shaped notch in the guide surface is defined by first and second side surfaces of the notch extending at an angle to each other, the first and second side surfaces of the notch extending transverse to the guide surface , wherein the tab (30; 130) engages the second notch side surface and a stop surface on the arm when the housing (12; 112) is connected to the bracket (14; 114). a housing (12; 112) having a camera mounted therein, the housing (12; 112) having at least one tab (30; 130); and a mounting bracket (14; 114) connectable with the vehicle, the mounting bracket (14; 114) including a channel (20; 120) for receiving the tab (30; 130) on the housing (12; 112), the channel (20; 120) being at least partially defined by an arm extending from a sidewall of the bracket (14; 114), the arm having an end surface and the sidewall having a guide surface , the end surface of the arm and the guide surface at least partially defining an insertion opening that faces generally downwardly, the tab (30; 130) on the housing (12; 112) sliding into the channel (20; 120) in the mounting bracket (14; 114) through the insertion opening to connect the housing (12; 112) to the mounting bracket (14; 114), the housing (12; 112) and the tab (30; 130) being pivotal relative to the bracket (14; 114) after the tab (30; 130) has slid into the channel (20; 120), wherein a V-shaped notch in the guide surface is defined by first and second side surfaces of the notch extending at an angle to each other, the first and second side surfaces of the notch extending transverse to the guide surface , wherein the tab (30; 130) engages the second notch side surface and a stop surface on the arm when the housing (12; 112) is connected to the bracket (14; 114).
A slurry pump for being mounted onto a crane arm on a slurry wagon or trailer for pumping slurry into and/or out of a tank of the slurry wagon/trailer, wherein the slurry pump is a centrifugal pump with an impeller arranged in a pump housing , which is arranged to be connected to the tank of the slurry wagon/trailer through a pump piping , and wherein, on the opposite side of the pump housing, there is an inlet/outlet through which the slurry can be pumped into or out of the pump housing, characterised in that said slurry pump is provided with a flap valve so that the inlet/outlet of the slurry pump can be sealed off when the pump is not in use, and that the flap valve is located outside the inlet/outlet and opens inwardly toward the input/outlet.
A method (300; 400) of selectively initiating a handover from a source system comprising a first core network, CN, and a first radio access network, RAN, to a target system comprising a second CN and a second RAN , the method comprising or triggering: determining (302; 404) if a control plane interface for the handover is available between the first CN and the second CN , wherein determining the availability of the control plane interface comprises receiving an availability message indicative of the availability from the first CN ; and selectively initiating (306; 406) the handover depending on the availability of the control plane interface . determining (302; 404) if a control plane interface for the handover is available between the first CN and the second CN , wherein determining the availability of the control plane interface comprises receiving an availability message indicative of the availability from the first CN ; and selectively initiating (306; 406) the handover depending on the availability of the control plane interface .
An umbrella case configured to hold an umbrella having a rigid shaft with a handle at one end and a spike at the other end, the umbrella case comprising an umbrella holding assembly comprising a generally tubular sheath having an open end and a spike-receiving portion defining a spike-receiving aperture at the other end, wherein the sheath and the spike-receiving portion are formed of an elastic material configured to be elastically stretched upon application of a longitudinal force, in use, thereby to increase the effective length of the umbrella holding assembly to accommodate the length of the umbrella held therein with the spike extending through the spike-receiving portion .
Battery charging apparatus for inductively charging a traction battery of an industrial truck, having a primary coil which is embedded in a floor area which can be driven over by an industrial truck , wherein the primary coil is constructed from one or more modules which are arranged beside one another and have respective module coils , and the primary coil can transmit electrical power to a secondary coil of the industrial truck , wherein each module can be adjusted for operation with respect to a stipulated adjacent module , both for operation as a composite module and for operation as a route module, wherein the module coil is operated in sync with the adjacent module during operation as a composite module, characterized in that , during operation as a route module, the module coil is activated by the adjacent module if the latter captures an industrial truck , or conversely activates the adjacent module if an industrial truck is captured by the module itself, wherein the adjustment is effected via a cable connection, wherein each module has two cable terminals , and operation as composite modules is stipulated in the case of a connection to an adjacent module via both cable terminals , whereas operation as route modules is stipulated during operation via one cable terminal .
A door frame for supporting at least one door leaf in a door opening of a wall (W) of a room (R) of a building (G), with a ceiling (D) and a floor (B) of the room (R) of the building (G), two profile elements running vertically between the floor (B) and ceiling (D) and spaced horizontally from each other, whereby the profile elements each provide a pivot point or a pivot axis for a door leaf , and at least one upper door connection element , which is arranged or can be arranged horizontally spaced from the profile elements between the profile elements or is arranged or can be arranged adjacent to at least one of the two profile elements between the profile elements and provides a stop for at least one door leaf and/or a recess for a locking element of at least one door leaf , characterised in that the upper door connection between the vertical profile elements is free of profile elements, so that the door frame has only the two profile elements extending vertically between the floor (B) and ceiling (D) and spaced horizontally from one another and the at least one upper door connection element and is in this respect free of transverse frieze, i.e. has no upper transverse frieze. a wall (W) of a room (R) of a building (G), with a ceiling (D) and a floor (B) of the room (R) of the building (G), two profile elements running vertically between the floor (B) and ceiling (D) and spaced horizontally from each other, whereby the profile elements each provide a pivot point or a pivot axis for a door leaf , and at least one upper door connection element , which is arranged or can be arranged horizontally spaced from the profile elements between the profile elements or is arranged or can be arranged adjacent to at least one of the two profile elements between the profile elements and provides a stop for at least one door leaf and/or a recess for a locking element of at least one door leaf , is arranged or can be arranged horizontally spaced from the profile elements between the profile elements or is arranged or can be arranged adjacent to at least one of the two profile elements between the profile elements and provides a stop for at least one door leaf and/or a recess for a locking element of at least one door leaf , characterised in that the upper door connection between the vertical profile elements is free of profile elements, so that the door frame has only the two profile elements extending vertically between the floor (B) and ceiling (D) and spaced horizontally from one another and the at least one upper door connection element and is in this respect free of transverse frieze, i.e. has no upper transverse frieze.
A substrate comprising a coating on a surface thereof, the coating comprising titanium phosphate, zirconium phosphate or a mixture thereof, wherein the substrate is an implant suitable for use in vivo; wherein the coating comprising titanium phosphate, zirconium phosphate or a mixture thereof has a thickness of from about 1 to about 1000 nm; and wherein the titanium phosphate and/or zirconium phosphate in the coating has a specific surface area of from about 5 to about 400 m 2 /g. wherein the coating comprising titanium phosphate, zirconium phosphate or a mixture thereof has a thickness of from about 1 to about 1000 nm; and wherein the titanium phosphate and/or zirconium phosphate in the coating has a specific surface area of from about 5 to about 400 m 2 /g.
Segmented ring for being installed in a turbomachine , which ring is circumferentially divided into segments with respect to a ring axis of the segmented ring , characterized in that the segmented ring is designed to be installed from radially inside, and therefore the segments can be assembled radially outwardly to form the segmented ring , at least two immediately circumferentially adjacent segments adjoin one another at a joint at which a sealing insert is provided, for which purpose a recess which is open toward the joint is formed in each of the at least two immediately circumferentially adjacent segments , and therefore two circumferentially mutually facing recesses are provided at the joint , the sealing insert being arranged in the two mutually facing recesses , being held axially therein and extending circumferentially over the joint , and additionally one recess of the two mutually facing recesses also being open in a radial direction such that the segment can be pushed radially onto the sealing insert .
An electromagnetic grounding arrangement for power cables of a wind turbine that comprises a tower mounted on a foundation , which electromagnetic grounding arrangement comprises - an electrically conductive sheet comprising at least one aperture through which a power cable passes; - a first current path (P1) from a jacket of the power cable to the electrically conductive sheet ; and - a second current path (P2) from the electrically conductive sheet to ground (G). - an electrically conductive sheet comprising at least one aperture through which a power cable passes; - a first current path (P1) from a jacket of the power cable to the electrically conductive sheet ; and - a second current path (P2) from the electrically conductive sheet to ground (G).
A system for providing wireless communication services to communication devices that are located in one or more aircraft that are operational in a selected coverage area, wherein at least one geostationary satellite communication system is operational in the selected coverage area and uses a plurality of earth stations (421-435,511,512), each of which transmits a respective first beam (521-522) that is directed upward at an orbital arc of a geostationary satellite constrained to operate above the equator of the earth, and each of which uses the respective first beam to transmit radio frequency signals to the geostationary satellite at a first radio frequency (F2) and receive radio frequency signals from the geostationary satellite at a second radio frequency (F1), the system comprising: at least one ground station for creating a radio frequency coverage area that provides radio frequency links to the one or more aircraft that are operational in the radio frequency coverage area, comprising: a transmitter that generates a radio frequency signal at the second radio frequency (F1) for transmission to the one or more aircraft ; and an antenna (531-533) that produces a second beam (541-543) of the radio frequency signal generated at the second radio frequency (F1), characterized in that the second beam (401-408, 541-543) is broader in extent than the respective first beam and is directed upward outside the main lobes of the earth stations such that the second beam substantially fails to radiate into any respective first beam (521-522) transmitted by the earth stations (421-435, 511-512) of the geostationary satellite communication system. at least one ground station for creating a radio frequency coverage area that provides radio frequency links to the one or more aircraft that are operational in the radio frequency coverage area, comprising: a transmitter that generates a radio frequency signal at the second radio frequency (F1) for transmission to the one or more aircraft ; and an antenna (531-533) that produces a second beam (541-543) of the radio frequency signal generated at the second radio frequency (F1), characterized in that the second beam (401-408, 541-543) is broader in extent than the respective first beam and is directed upward outside the main lobes of the earth stations such that the second beam substantially fails to radiate into any respective first beam (521-522) transmitted by the earth stations (421-435, 511-512) of the geostationary satellite communication system. a transmitter that generates a radio frequency signal at the second radio frequency (F1) for transmission to the one or more aircraft ; and an antenna (531-533) that produces a second beam (541-543) of the radio frequency signal generated at the second radio frequency (F1), characterized in that the second beam (401-408, 541-543) is broader in extent than the respective first beam and is directed upward outside the main lobes of the earth stations such that the second beam substantially fails to radiate into any respective first beam (521-522) transmitted by the earth stations (421-435, 511-512) of the geostationary satellite communication system.
Motor vehicle exterior part comprising: - a wall comprising a face intended to be visible from outside of a vehicle, said face being coated with a first layer , - a second layer covering the first layer , - a heating element arranged between the two layers , the first layer comprising an area of increased thickness and the heating element being arranged only on the area of increased thickness of the first layer , characterized in that the heating element is a heating filament - a wall comprising a face intended to be visible from outside of a vehicle, said face being coated with a first layer , - a second layer covering the first layer , - a heating element arranged between the two layers ,
A method for making a silica fiber composition, comprising: preparing a sol that contains 70% to 90% tetraethyl orthosilicate (TEOS) by weight, 8% to 25% ethanol by weight, an acid catalyst, preferably HCl, and the balance water; transitioning the sol to a sol-gel for 2 to 7 days under conditions where humidity is within the range of 40% to 80%, and the temperature is within the range of 10 to 32,2 °C (50 to 90° F); and electrospinning the sol-gel into a silica fiber mat. preparing a sol that contains 70% to 90% tetraethyl orthosilicate (TEOS) by weight, 8% to 25% ethanol by weight, an acid catalyst, preferably HCl, and the balance water; transitioning the sol to a sol-gel for 2 to 7 days under conditions where humidity is within the range of 40% to 80%, and the temperature is within the range of 10 to 32,2 °C (50 to 90° F); and electrospinning the sol-gel into a silica fiber mat.
A method performed by an apparatus for device identification in a computer network system, the method comprising: maintaining a database of one or more computer devices registered at a computer network, the database comprising network-based identification data and physical location data of the one or more computer devices; detecting a connection request from a new computer device to the computer network based on comparing network-based identification data of the new computer device with the network-based identification data stored in the database, wherein the network-based identification data of the one or more computer devices comprises one or more of: a Media Access Control address, a hostname, and any other network-based data enabling identification; determining a physical location of the new computer device; comparing the physical location of the new computer device with the physical location data stored in the database; and taking further action to protect the one or more computer devices from a security threat caused by a change of the network-based identification data of the previously registered computer device; characterized by : in response to detecting a previously registered computer device of the one or more computer devices having at least an approximately same physical location as the new computer device based on comparing the physical location of the new computer device with the physical location data stored in the database, determining that the change has occurred in network-based identification data of the previously registered computer device. maintaining a database of one or more computer devices registered at a computer network, the database comprising network-based identification data and physical location data of the one or more computer devices; detecting a connection request from a new computer device to the computer network based on comparing network-based identification data of the new computer device with the network-based identification data stored in the database, wherein the network-based identification data of the one or more computer devices comprises one or more of: a Media Access Control address, a hostname, and any other network-based data enabling identification; determining a physical location of the new computer device; comparing the physical location of the new computer device with the physical location data stored in the database; and taking further action to protect the one or more computer devices from a security threat caused by a change of the network-based identification data of the previously registered computer device; characterized by : in response to detecting a previously registered computer device of the one or more computer devices having at least an approximately same physical location as the new computer device based on comparing the physical location of the new computer device with the physical location data stored in the database, determining that the change has occurred in network-based identification data of the previously registered computer device.