mhurhangee/ep-ind-claims huggingface dataset:
An overhead bin (10, 10') for an aircraft, comprising: a base unit that is designed to fasten the overhead bin (10, 10') to a retaining structure of the aircraft; a mounting unit (14, 14') that is connected to the base unit, wherein by way of the mounting unit (14, 14') a stowage space of the overhead bin (10, 10') is accessible; wherein the base unit provides a first stowage space region, and the mounting unit (14, 14') provides a second stowage space region that together with the first stowage space region forms the stowage space of the overhead bin (10, 10'); wherein the base unit and the mounting unit (14, 14') comprise parallel sidewalls (16, 24) that are interconnected by way of face surfaces; wherein the base unit comprises a first opening, and the mounting unit (14, 14') comprises a second opening that is complementary to the first opening of the base unit; and wherein the base unit and the mounting unit (14, 14') are joined by way of the first opening and the second opening. a base unit that is designed to fasten the overhead bin (10, 10') to a retaining structure of the aircraft; a mounting unit (14, 14') that is connected to the base unit, wherein by way of the mounting unit (14, 14') a stowage space of the overhead bin (10, 10') is accessible; wherein the base unit provides a first stowage space region, and the mounting unit (14, 14') provides a second stowage space region that together with the first stowage space region forms the stowage space of the overhead bin (10, 10'); wherein the base unit and the mounting unit (14, 14') comprise parallel sidewalls (16, 24) that are interconnected by way of face surfaces; wherein the base unit comprises a first opening, and the mounting unit (14, 14') comprises a second opening that is complementary to the first opening of the base unit; and wherein the base unit and the mounting unit (14, 14') are joined by way of the first opening and the second opening.
A system for evacuating mobile robots operating in one or more zones in a building, said system comprising: mobile robots capable of receiving, using a sensor or receiver, one or more evacuation commands from a robot management system configured to control the mobile robots, wherein the one or more evacuation commands comprise information about one or more evacuation zones, wherein the system is configured to define an evacuation action to be performed at the one or more evacuation zones, said evacuation action directs the mobile robots operating in the one or more evacuation zones to leave the one or more evacuation zones and enter evacuation positions outside the one or more evacuation zones and inside the building in response to the one or more evacuation commands, wherein the evacuation positions are selected from the group consisting of dedicated parking lots for the mobile robots, specific compartments, and docking stations, characterized in that the mobile robots are configured to determine the shortest or fastest path out of the one or more evacuation zones and to the evacuation positions and communicate the determined path to the robot management system, wherein the robot management system is configured to identify and resolve conflicts between mobile robots attempting to evacuate to the same evacuation position by communicating a new evacuation position to some of the mobile robots and directing the mobile robots to leave the one or more evacuation zones and enter the evacuation position. mobile robots capable of receiving, using a sensor or receiver, one or more evacuation commands from a robot management system configured to control the mobile robots, wherein the one or more evacuation commands comprise information about one or more evacuation zones, wherein the system is configured to define an evacuation action to be performed at the one or more evacuation zones, said evacuation action directs the mobile robots operating in the one or more evacuation zones to leave the one or more evacuation zones and enter evacuation positions outside the one or more evacuation zones and inside the building in response to the one or more evacuation commands, wherein the evacuation positions are selected from the group consisting of dedicated parking lots for the mobile robots, specific compartments, and docking stations, characterized in that the mobile robots are configured to determine the shortest or fastest path out of the one or more evacuation zones and to the evacuation positions and communicate the determined path to the robot management system, wherein the robot management system is configured to identify and resolve conflicts between mobile robots attempting to evacuate to the same evacuation position by communicating a new evacuation position to some of the mobile robots and directing the mobile robots to leave the one or more evacuation zones and enter the evacuation position.
A method to record the light absorption of a sample, said method comprising the steps of: providing first and second pulsed beams of light on said sample using one or more light beams, said first and second pulsed beams having a different beam shape such that one light beam exhibits a node where the other light beam does not; measuring the difference in intensity for said first and second pulsed beams transmitted through and/or reflected by a sample; and generating an image of the sample from said measured difference in intensity; wherein the first light beam comprises a zeroth order Gaussian focalized on the sample, wherein said first and second beams are adapted to be co-aligned, and wherein the first and second light pulsed beams are selected at an intensity to achieve saturation of absorption of the sample, such that the level of saturation provides sub-diffraction resolution. providing first and second pulsed beams of light on said sample using one or more light beams, said first and second pulsed beams having a different beam shape such that one light beam exhibits a node where the other light beam does not; measuring the difference in intensity for said first and second pulsed beams transmitted through and/or reflected by a sample; and generating an image of the sample from said measured difference in intensity; wherein the first light beam comprises a zeroth order Gaussian focalized on the sample, wherein said first and second beams are adapted to be co-aligned, and wherein the first and second light pulsed beams are selected at an intensity to achieve saturation of absorption of the sample, such that the level of saturation provides sub-diffraction resolution.
A catamaran boat comprising: - a first catamaran craft that works independently, having a main direction of longitudinal development along a median axis (x) and comprising a bow, a stern, motor means and direction means; characterised in that it further comprises: - a second catamaran craft that works independently, having a main direction of longitudinal development along a median axis (x) and comprising a bow, a stern, motor means and direction means, - wherein both said first catamaran craft and said second catamaran craft comprise coupling means for their mutual stable connection, obtained by fitting their sterns together (2a, 2b), on a transverse junction plane (Π), in order to realize said catamaran boat adapted to work as a single unit. - a first catamaran craft that works independently, having a main direction of longitudinal development along a median axis (x) and comprising a bow, a stern, motor means and direction means; - a second catamaran craft that works independently, having a main direction of longitudinal development along a median axis (x) and comprising a bow, a stern, motor means and direction means, - wherein both said first catamaran craft and said second catamaran craft comprise coupling means for their mutual stable connection, obtained by fitting their sterns together (2a, 2b), on a transverse junction plane (Π), in order to realize said catamaran boat adapted to work as a single unit.
An antenna core comprising a laminate of a plurality of Co-based amorphous magnetic alloy thin strips, wherein the laminate has the Co-based amorphous magnetic alloy thin strips in a range of not less than 10 nor more than 50; each of the Co-based amorphous magnetic alloy thin strips has a shape selected from a rectangular, a H-shape, an elliptic shape and a polygonal shape, and a length ratio of a long axis to a short axis in each of the Co-based amorphous magnetic alloy thin strips is in a range of not less than 2 nor more than 40, and 60% or more of the Co-based amorphous magnetic alloy thin strips in terms of the number of the thin strips as percentage each have a line-shaped mark on a roll surface formed when being fabricated by a roll rapid cooling method, and formed along the long axis on at least one surface thereof; wherein the antenna core is configured to be used for an antenna which receives and/or transmits a radio signal having a frequency in a range of not lower than 40 kHz nor higher than 150 kHz.
A sheet feed mechanism comprising: a chassis configured to support a stack of sheets; a top sheet engaging member for engaging the top-most sheet of the stack and moving the top-most sheet relative to the remainder of the stack; and a stack engaging structure for engaging the stack and biasing the top-most sheet against the top sheet engaging member, the sheet feed mechanism being characterized in that the stack engaging structure having a friction surface extending parallel to the stack engaging structure's direction of travel; a lock mechanism mounted to the chassis for limited relative movement thereto, the lock mechanism having a biased contact foot for engaging the friction surface to secure the stack engaging structure to the lock mechanism for movement therewith; and, a dual action actuator mounted to the chassis to successively disengage and engage the contact foot from the friction surface such that, upon the contact foot disengaging from the friction surface the stack engaging structure moves relative to the lock mechanism to press the top-most sheet against the top sheet engaging member then the dual action actuator disengages the contact foot such that it re-engages the friction surface and the dual action actuator moving the lock mechanism relative to the chassis the stack engaging structure retracts a predetermined distance from the top-most sheet engaging member. a chassis configured to support a stack of sheets; a top sheet engaging member for engaging the top-most sheet of the stack and moving the top-most sheet relative to the remainder of the stack; and a stack engaging structure for engaging the stack and biasing the top-most sheet against the top sheet engaging member, the sheet feed mechanism being characterized in that the stack engaging structure having a friction surface extending parallel to the stack engaging structure's direction of travel; a lock mechanism mounted to the chassis for limited relative movement thereto, the lock mechanism having a biased contact foot for engaging the friction surface to secure the stack engaging structure to the lock mechanism for movement therewith; and, a dual action actuator mounted to the chassis to successively disengage and engage the contact foot from the friction surface such that, upon the contact foot disengaging from the friction surface the stack engaging structure moves relative to the lock mechanism to press the top-most sheet against the top sheet engaging member then the dual action actuator disengages the contact foot such that it re-engages the friction surface and the dual action actuator moving the lock mechanism relative to the chassis the stack engaging structure retracts a predetermined distance from the top-most sheet engaging member.
A zinc secondary battery comprising: a positive electrode; a negative electrode containing zinc; an electrolytic solution in which the positive electrode and the negative electrode are immersed or with which the positive electrode and the negative electrode are in contact, wherein the electrolytic solution is an aqueous solution containing an alkali metal hydroxide; and a separator being placed between the positive electrode and the negative electrode and separating the positive electrode and the negative electrode from each other, wherein the separator comprises an inorganic solid electrolyte body having hydroxide ion conductivity, wherein the separator separates the electrolytic solution between the positive and negative electrodes, and wherein the inorganic solid electrolyte body has a relative density of 90% or greater. a positive electrode; a negative electrode containing zinc; an electrolytic solution in which the positive electrode and the negative electrode are immersed or with which the positive electrode and the negative electrode are in contact, wherein the electrolytic solution is an aqueous solution containing an alkali metal hydroxide; and a separator being placed between the positive electrode and the negative electrode and separating the positive electrode and the negative electrode from each other, wherein the separator comprises an inorganic solid electrolyte body having hydroxide ion conductivity, wherein the separator separates the electrolytic solution between the positive and negative electrodes, and wherein the inorganic solid electrolyte body has a relative density of 90% or greater.
A composition for use in therapy, the composition comprising at least one dendrimer having conjugated thereto at least one MHC II targeting moiety and at least one drug, wherein the at least one MHC II targeting moiety is conjugated to the exterior surface of the at least one dendrimer such that the at least one MHC II targeting moiety specifically binds to antigen presenting cells (APCs), and the at least one drug is encapsulated by the at least one dendrimer or conjugated to the exterior surface of the at least one dendrimer, and wherein the at least one drug is any form of a unilamellar liposomal formulation of amphotericin B.
A method for wireless communications, comprising: Receiving, from a serving base station (110, 110a, 110b, 110c, 110x,110y, 110z, 702, 704), an assignment of uplink resources in a special subframe in which an interfering base station (110, 110a, 110b, 110c, 110x,110y, 110z, 702, 704) limits transmissions to reduce interference with transmissions from the serving base station (110, 110a, 110b, 110c, 110x,110y, 110z, 702, 704), wherein the assigned uplink resources are not limited to resources having a fixed time offset relative to special subframes in which the interfering base station (110, 110a, 110b, 110c, 110x,110y, 110z, 702, 704) limits downlink transmissions in an effort to reduce interference to another station (110, 110a, 110b, 110c, 110x,110y, 110z, 702, 704), wherein the assignment assigns uplink resources in one or more subframes that are offset from the special subframe by one or more respective configurable offsets; and transmitting to the serving base station (110, 110a, 110b, 110c, 110x,110y, 110z, 702, 704), using the assigned uplink resources. Receiving, from a serving base station (110, 110a, 110b, 110c, 110x,110y, 110z, 702, 704), an assignment of uplink resources in a special subframe in which an interfering base station (110, 110a, 110b, 110c, 110x,110y, 110z, 702, 704) limits transmissions to reduce interference with transmissions from the serving base station (110, 110a, 110b, 110c, 110x,110y, 110z, 702, 704), wherein the assigned uplink resources are not limited to resources having a fixed time offset relative to special subframes in which the interfering base station (110, 110a, 110b, 110c, 110x,110y, 110z, 702, 704) limits downlink transmissions in an effort to reduce interference to another station (110, 110a, 110b, 110c, 110x,110y, 110z, 702, 704), wherein the assignment assigns uplink resources in one or more subframes that are offset from the special subframe by one or more respective configurable offsets; and transmitting to the serving base station (110, 110a, 110b, 110c, 110x,110y, 110z, 702, 704), using the assigned uplink resources.
Insert element for a vehicle wheel, in particular a lightweight metal wheel, with a plurality of supporting bodies arranged at a distance from one another on the rear side of the insert element (6, 6.1), for supporting and holding the insert element (6, 6.1) mounted on the vehicle wheel on supporting surfaces of the vehicle wheel, wherein the supporting bodies comprise a supporting step (13, 13.1) which can be brought to bear against a supporting surface of the vehicle wheel and a fastening extension with an axial hollow channel and with at least one outwardly protruding locking projection (17, 17.1), arranged at an axial distance from the support step (13, 13.1), for engaging behind an installation opening reaching through the supporting surface of the vehicle wheel, characterised in that the supporting bodies (9, 9.1) are designed as elastomer components which are elastically deformable in the radial and axial directions, and sit with their hollow channel on a supporting core (8, 8.1), which supporting cores (8, 8.1) bear a radially protruding retaining flange (10, 10.1) and are held on the rear side of the insert element (6, 6.1), wherein each supporting body (9, 9.1) is held by the retaining flange (10, 10.1) of the supporting core (8, 8.1) carrying this in a form-fitting manner (positive fit) in the axial direction of the supporting core (8, 8.1) against being pulled off from the supporting core (8, 8.1).
A mobile terminal comprising: storage means for storing data distributed from a server; measuring means for obtaining position information of the mobile terminal; arithmetic means for carrying out an arithmetic operation for an amount of space currently available in the storage means and a possible amount of space that is a volume of deletable data in the storage means; notifying means for notifying the server of a data acquisition request showing the amount of space currently available and the possible amount of space for which the arithmetic operation has been carried out by the arithmetic means and the position information of the mobile terminal; receiving means for receiving first data and a distribution list that is a list of data other than the first data in response to the notification by the notifying means, wherein the first data and the distribution list are based on the position of the mobile terminal; deleting means for performing deletion of data in order to secure the possible amount of space in the storage means when the distribution list is received by the receiving means; requesting means for requesting the server for data satisfying a predetermined condition out of the data described in the distribution list to acquire this data, when the deletion of data is performed by the deleting means and a predetermined storage capacity is secured. storage means for storing data distributed from a server; measuring means for obtaining position information of the mobile terminal; arithmetic means for carrying out an arithmetic operation for an amount of space currently available in the storage means and a possible amount of space that is a volume of deletable data in the storage means; notifying means for notifying the server of a data acquisition request showing the amount of space currently available and the possible amount of space for which the arithmetic operation has been carried out by the arithmetic means and the position information of the mobile terminal; receiving means for receiving first data and a distribution list that is a list of data other than the first data in response to the notification by the notifying means, wherein the first data and the distribution list are based on the position of the mobile terminal; deleting means for performing deletion of data in order to secure the possible amount of space in the storage means when the distribution list is received by the receiving means; requesting means for requesting the server for data satisfying a predetermined condition out of the data described in the distribution list to acquire this data, when the deletion of data is performed by the deleting means and a predetermined storage capacity is secured.
A downhole power generation system (100; 200), comprising: a power generation module (1-N) for providing power to a load, the power generation module (1-N) comprising: a turbine driven by flow of a downhole fluid to rotate; a generator coupled with the turbine for converting rotational energy from the turbine to electrical energy; and an AC-DC rectifier coupled with the generator for converting an alternating current voltage from the generator to a direct current voltage; and a power conversion circuit coupling the AC-DC rectifier with the load, and configured for providing a first power to the load when the load is in a working mode and providing a second power to the load when the load is in a non-working mode, the second power being less than the first power, characterized in that the power conversion circuit comprises: a first DC-DC converter for providing the first power to the load when the load is in the working mode; and a second DC-DC converter for providing the second power to the load when the load is in the non-working mode. a power generation module (1-N) for providing power to a load, the power generation module (1-N) comprising: a turbine driven by flow of a downhole fluid to rotate; a generator coupled with the turbine for converting rotational energy from the turbine to electrical energy; and an AC-DC rectifier coupled with the generator for converting an alternating current voltage from the generator to a direct current voltage; and a turbine driven by flow of a downhole fluid to rotate; a generator coupled with the turbine for converting rotational energy from the turbine to electrical energy; and an AC-DC rectifier coupled with the generator for converting an alternating current voltage from the generator to a direct current voltage; and a power conversion circuit coupling the AC-DC rectifier with the load, and configured for providing a first power to the load when the load is in a working mode and providing a second power to the load when the load is in a non-working mode, the second power being less than the first power, characterized in that the power conversion circuit comprises: a first DC-DC converter for providing the first power to the load when the load is in the working mode; and a second DC-DC converter for providing the second power to the load when the load is in the non-working mode. a first DC-DC converter for providing the first power to the load when the load is in the working mode; and a second DC-DC converter for providing the second power to the load when the load is in the non-working mode.
A composition comprising stable amorphous calcium carbonate comprising at least one stabilizer for use in treating calcium malabsorption in a subject suffering from hypoparathyroidism, wherein said stabilizer is selected from carboxylic acids, phosphorylated amino acids, phosphorylated peptides, chitin, phosphoric or sulfuric esters of hydroxycarboxylic acids, hydroxyl bearing organic compounds selected from mono-, di-, tri-, oligo- and poly-saccharides, and polyols selected from alcohols and saccharides and wherein 100% (in mg) of the elemental calcium initial total daily intake is replaced by 50% of elemental calcium from ACC (in mg, calculated out of the initial total daily intake).
A compound having the chemical structure of: wherein R and R' are each independently selected from the group consisting of: methyl, ethyl, propyl, fluorinated methyl, fluorinated ethyl, or fluorinated propyl.