mhurhangee/patent-ind-claim-en huggingface dataset:
A second base station capable of performing mobile node handoff operations involving a handoff of a mobile node from a first base station having a first communications link with said mobile node to said second base station , the second base station comprising: means for allocating a dedicated resource comprising dedicated access segments, said dedicated resource including at least a first set of uplink tones of a first plurality of set of tones that is to be used by said mobile node when establishing a second communications link with said second base station in a handoff operation, wherein contention based access segments are to be used when the mobile node does not currently have an established wireless link, a tone being a basic unit of an air link resource representing one tone for one OFDM symbol interval time; means for transmitting information about the dedicated resource to said first base station over a communications link between said first and second base stations ; means for receiving, on said first set of uplink tones , a timing control signal communicated over the air from said mobile node to said second base station ; means for transmitting to said mobile node , after receiving said timing control signal, a timing synchronization signal, prior to receiving user data from said mobile node , wherein the timing synchronization signal indicates to the mobile node whether to advance, retard or leave its transmission timing unchanged; and means for establishing a secure communications link with said first base station prior to transmitting said information about the resource dedicated to said mobile node to said first base station using said secure communications link. means for allocating a dedicated resource comprising dedicated access segments, said dedicated resource including at least a first set of uplink tones of a first plurality of set of tones that is to be used by said mobile node when establishing a second communications link with said second base station in a handoff operation, wherein contention based access segments are to be used when the mobile node does not currently have an established wireless link, a tone being a basic unit of an air link resource representing one tone for one OFDM symbol interval time; means for transmitting information about the dedicated resource to said first base station over a communications link between said first and second base stations ; means for receiving, on said first set of uplink tones , a timing control signal communicated over the air from said mobile node to said second base station ; means for transmitting to said mobile node , after receiving said timing control signal, a timing synchronization signal, prior to receiving user data from said mobile node , wherein the timing synchronization signal indicates to the mobile node whether to advance, retard or leave its transmission timing unchanged; and means for establishing a secure communications link with said first base station prior to transmitting said information about the resource dedicated to said mobile node to said first base station using said secure communications link.
A multi-purpose auxiliary member tool for removing a personal card from a slot compartment or specialized slot of a wallet comprising: a) an attachment component , wherein the attachment component is a generally flattened, rigid, U-shaped body, having a generally planar top card gripping arm and a generally planar bottom card gripping arm extending distally from a common base such that the top gripping arm and the bottom gripping arm are opposed and held in a generally parallel orientation to each other and held in a fixed position relative to each other, said top gripping arm and said bottom gripping arm together defining a card slot having an open front end and closed back end , the card slot being adapted to removably accept and secure a personal card by tight friction fit, wherein the attachment component arms retain their shape and position relative to each other through repeated insertion of personal cards into the card slot , without bending or breaking, and wherein the attachment component is formed as a single, continuous unit that is not bendable, and is unbreakable or is resistant to breakage; and b) an extension component disposed upon and extending distally from the base of the attachment component , said extension component being adapted for gripping and removal of a personal card from a slot compartment or specialized slot of a wallet when the tool is secured to the personal card. a) an attachment component , wherein the attachment component is a generally flattened, rigid, U-shaped body, having a generally planar top card gripping arm and a generally planar bottom card gripping arm extending distally from a common base such that the top gripping arm and the bottom gripping arm are opposed and held in a generally parallel orientation to each other and held in a fixed position relative to each other, said top gripping arm and said bottom gripping arm together defining a card slot having an open front end and closed back end , the card slot being adapted to removably accept and secure a personal card by tight friction fit, wherein the attachment component arms retain their shape and position relative to each other through repeated insertion of personal cards into the card slot , without bending or breaking, and wherein the attachment component is formed as a single, continuous unit that is not bendable, and is unbreakable or is resistant to breakage; and b) an extension component disposed upon and extending distally from the base of the attachment component , said extension component being adapted for gripping and removal of a personal card from a slot compartment or specialized slot of a wallet when the tool is secured to the personal card.
A method of receiving a synchronization signal by a first user equipment, UE, (140; 170; 850) supporting a device-to-device, D2D, communication between UEs (130, 140; 150, 160, 170; 800, 850), the method comprising: receiving, at the first UE (140; 170; 850), a D2D synchronization signal transmitted from a second UE (130; 160; 800), wherein the D2D synchronization signal comprises a primary D2D synchronization signal, PD2DSS, and a secondary D2D synchronization signal SD2DSS, wherein the SD2DSS is received in two Single Carrier-Frequency Division Multiplexing, SC-FDM, symbols in a same subframe; determining a root index based on the received PD2DSS; determining a type of a synchronization source based on the root index, wherein the root index corresponds to an integer value X when the type of synchronization source is associated with D2DSSue_net, or to an integer value Y when the type of synchronization source is associated with D2DSSue_oon, and wherein each of the integer value X and integer value Y is are in the range from 1 to 62, excluding 25, 29, and 34, characterized in that the method further comprises determining an identical sequence mapping and an identical scrambling scheme used for each of the two symbols for the SD2DSS; and identifying, based on the identical sequence mapping and the identical scrambling scheme, information indicated through the SD2DSS, wherein the information indicated through the SD2DSS indicates one of two conditions. receiving, at the first UE (140; 170; 850), a D2D synchronization signal transmitted from a second UE (130; 160; 800), wherein the D2D synchronization signal comprises a primary D2D synchronization signal, PD2DSS, and a secondary D2D synchronization signal SD2DSS, wherein the SD2DSS is received in two Single Carrier-Frequency Division Multiplexing, SC-FDM, symbols in a same subframe; determining a root index based on the received PD2DSS; determining a type of a synchronization source based on the root index, wherein the root index corresponds to an integer value X when the type of synchronization source is associated with D2DSSue_net, or to an integer value Y when the type of synchronization source is associated with D2DSSue_oon, and wherein each of the integer value X and integer value Y is are in the range from 1 to 62, excluding 25, 29, and 34, characterized in that the method further comprises determining an identical sequence mapping and an identical scrambling scheme used for each of the two symbols for the SD2DSS; and identifying, based on the identical sequence mapping and the identical scrambling scheme, information indicated through the SD2DSS, wherein the information indicated through the SD2DSS indicates one of two conditions.
A device for preparing a patient's sample before analysis, comprising: - a housing ; and - an actuator ; wherein the housing includes a receiving chamber with an opening and a reagent reservoir ; wherein the receiving chamber is configured for receiving at least a portion of the patient's sample through the opening and wherein the reagent reservoir is configured for receiving a reagent ; and wherein the actuator is movable relative to the housing and is configured for sequentially closing the receiving chamber and putting in contact the reagent received in the reagent reservoir with the sample of the receiving chamber, so that the patient's sample is at least partially mixed with the reagent; wherein the actuator comprises an actuator body and a closing element arranged to close the opening of the receiving chamber, and a releasing element arranged to release the reagent into contact with the patient sample upon movement of the actuator. - a housing ; and - an actuator ;
A mobile terminal , comprising: a camera ; a touch screen configured to output an image received from the camera ; a wireless communication unit configured to receive, from a vehicle or a server , vehicle information associated with the vehicle ; and a controller configured to control the touch screen to output guide information on the image to guide a moving direction of the mobile terminal such that a predetermined portion of the vehicle is captured based on the vehicle information, characterised in that the controller is configured to select at least one component included in the vehicle using the image and to transmit a test command to the vehicle through the wireless communication unit so as to perform a test operation for the selected component. a camera ; a touch screen configured to output an image received from the camera ; a wireless communication unit configured to receive, from a vehicle or a server , vehicle information associated with the vehicle ; and a controller configured to control the touch screen to output guide information on the image to guide a moving direction of the mobile terminal such that a predetermined portion of the vehicle is captured based on the vehicle information, characterised in that the controller is configured to select at least one component included in the vehicle using the image and to transmit a test command to the vehicle through the wireless communication unit so as to perform a test operation for the selected component.
A mouldable element for use in orthopaedic surgery, including: mouldable material for being placed against a surgical site to form an impression of that site; characterised in that the mouldable element includes a carrier for carrying the mouldable material, the carrier comprising a reference element coupled to the mouldable material, wherein the reference element includes a coupling element configured to couple the mouldable element to a production apparatus in a predetermined position so that a configuration of a surface of the mouldable material can be recorded with respect to a known point of reference. mouldable material for being placed against a surgical site to form an impression of that site; characterised in that the mouldable element includes a carrier for carrying the mouldable material, the carrier comprising a reference element coupled to the mouldable material, wherein the reference element includes a coupling element configured to couple the mouldable element to a production apparatus in a predetermined position so that a configuration of a surface of the mouldable material can be recorded with respect to a known point of reference.
A method for allocating a resource in a V2X system, comprising: allocating , by a network-side device, sub-frame resources for node devices initially accessing a cell, and notifying the initially allocated sub-frame resources to the node devices initially accessing the cell; and the method characterised by further comprising: determining , by the network-side device, colliding node devices among the node devices which have accessed the cell, reallocating sub-frame resources for the colliding node devices, and notifying the reallocated sub-frame resources respectively to the colliding node devices; wherein determining, by the network-side device, the colliding node devices comprises: determining, by the network-side device, the colliding node devices according to interference information related to a sub-frame resource with interference reported by the node devices which have accessed the cell; and determining, by the network-side device, the colliding node devices according to current positional information, of the node devices which have accessed the cell, reported by the node devices. determining , by the network-side device, colliding node devices among the node devices which have accessed the cell, reallocating sub-frame resources for the colliding node devices, and notifying the reallocated sub-frame resources respectively to the colliding node devices; wherein determining, by the network-side device, the colliding node devices comprises: determining, by the network-side device, the colliding node devices according to interference information related to a sub-frame resource with interference reported by the node devices which have accessed the cell; and determining, by the network-side device, the colliding node devices according to current positional information, of the node devices which have accessed the cell, reported by the node devices. determining, by the network-side device, the colliding node devices according to interference information related to a sub-frame resource with interference reported by the node devices which have accessed the cell; and determining, by the network-side device, the colliding node devices according to current positional information, of the node devices which have accessed the cell, reported by the node devices.
A seat fitting for attaching a seat to a seat track in a vehicle, the seat fitting comprising: a body having a bottom surface to face the seat track; a locking stud ; and a solenoid disposed in the body , the solenoid operable to move the locking stud between a retracted position in which the locking stud is disposed in the body and an extended position in which the locking stud extends outward from the bottom surface of the body and into the seat track; wherein the locking stud is moved from the extended position to the retracted position when the solenoid is energized, and the locking stud is moved from the retracted position to the extended position when the solenoid is de-energized; and wherein, when the solenoid is de-energized, the locking stud moves away from the bottom surface of the body and rotates about an axis of the locking stud. a body having a bottom surface to face the seat track; a locking stud ; and a solenoid disposed in the body , the solenoid operable to move the locking stud between a retracted position in which the locking stud is disposed in the body and an extended position in which the locking stud extends outward from the bottom surface of the body and into the seat track; wherein the locking stud is moved from the extended position to the retracted position when the solenoid is energized, and the locking stud is moved from the retracted position to the extended position when the solenoid is de-energized; and wherein, when the solenoid is de-energized, the locking stud moves away from the bottom surface of the body and rotates about an axis of the locking stud.
An array substrate comprising: a display area (DA) and a non-display area (NDA) located outside the display area, wherein the non-display area comprises: a substrate ; a buffer layer disposed on the substrate; a first insulating layer disposed on the buffer layer; a second insulating layer disposed on the first insulating layer, wherein at least one of the first insulating layer and the second insulating layer comprises an inorganic layer; and a plurality of wiring patterns disposed on the first and second insulating players , wherein the wiring patterns are separated from each other and each of the wiring patterns comprises a wiring line disposed on the first insulating layer and extending toward a side of the substrate; the non-display area (NDA) of the array substrate further comprising a recess pattern disposed between adjacent wiring lines and wherein the recess pattern penetrates through the inorganic layers among the first insulating layer , the second insulating layer and the buffer layer . a display area (DA) and a non-display area (NDA) located outside the display area, wherein the non-display area comprises: a substrate ; a buffer layer disposed on the substrate; a first insulating layer disposed on the buffer layer; a second insulating layer disposed on the first insulating layer, wherein at least one of the first insulating layer and the second insulating layer comprises an inorganic layer; and a plurality of wiring patterns disposed on the first and second insulating players , a substrate ; a buffer layer disposed on the substrate; a first insulating layer disposed on the buffer layer; a second insulating layer disposed on the first insulating layer, wherein at least one of the first insulating layer and the second insulating layer comprises an inorganic layer; and a plurality of wiring patterns disposed on the first and second insulating players , wherein the wiring patterns are separated from each other and each of the wiring patterns comprises a wiring line disposed on the first insulating layer and extending toward a side of the substrate; the non-display area (NDA) of the array substrate further comprising a recess pattern disposed between adjacent wiring lines and wherein the recess pattern penetrates through the inorganic layers among the first insulating layer , the second insulating layer and the buffer layer .
A MWW zeolitic material, obtainable or obtained by a process for the preparation of a zeolitic material, comprising (i) providing a boron-containing zeolitic material (B-Zeolite); (ii) deboronating the B-Zeolite with a liquid solvent system at a temperature in the range of from 90 to 105 °C thereby obtaining a deboronated B-MWW Zeolite (Zeolite); wherein the boron-containing zeolitic material B-Zeolite provided in (i) is a boron-containing zeolitic material of structure type MWW (B-MWW), wherein the liquid solvent system is water, and wherein the liquid solvent system does not contain an inorganic or organic acid, or a salt thereof. (i) providing a boron-containing zeolitic material (B-Zeolite); (ii) deboronating the B-Zeolite with a liquid solvent system at a temperature in the range of from 90 to 105 °C thereby obtaining a deboronated B-MWW Zeolite (Zeolite); wherein the boron-containing zeolitic material B-Zeolite provided in (i) is a boron-containing zeolitic material of structure type MWW (B-MWW), wherein the liquid solvent system is water, and wherein the liquid solvent system does not contain an inorganic or organic acid, or a salt thereof.
An apparatus, wherein the apparatus is a LNA module, comprising: a plurality of amplifiers (620-624), each amplifier having an input terminal (601-605); a plurality of output terminals , each output terminal coupled to two or more amplifier outputs; and a coupler configured to selectively couple together at least two of the plurality of output terminals, wherein, in a normal operating mode of the apparatus (Normal 1-5), the coupler is configured to be disabled, and at least one amplifier of the plurality of amplifiers is enabled to provide an amplifier output signal to at least one or two of the plurality of output terminals, wherein when the at least two of the plurality of output terminals are coupled together by the coupler in an output-coupling operating mode of the apparatus (Output couple 1), the coupler is further configured to amplify a signal received at a first of the plurality of output terminals and to provide the amplified signal to a second of the plurality of output terminals, wherein the plurality of amplifiers are configured to be inactive in the output-coupling operating mode of the apparatus (Output couple 1) or wherein the plurality of amplifiers are configured in a minimum gain configuration in the output-coupling operating mode of the apparatus (Output couple 1), wherein the coupler includes a bidirectional amplifier configured to be controlled by a coupler control signal to determine a signal flow direction of the coupler in the output-coupling operating mode of the apparatus (Output couple 1). a plurality of amplifiers (620-624), each amplifier having an input terminal (601-605); a plurality of output terminals , each output terminal coupled to two or more amplifier outputs; and a coupler configured to selectively couple together at least two of the plurality of output terminals, wherein, in a normal operating mode of the apparatus (Normal 1-5), the coupler is configured to be disabled, and at least one amplifier of the plurality of amplifiers is enabled to provide an amplifier output signal to at least one or two of the plurality of output terminals, wherein when the at least two of the plurality of output terminals are coupled together by the coupler in an output-coupling operating mode of the apparatus (Output couple 1), the coupler is further configured to amplify a signal received at a first of the plurality of output terminals and to provide the amplified signal to a second of the plurality of output terminals, wherein the plurality of amplifiers are configured to be inactive in the output-coupling operating mode of the apparatus (Output couple 1) or wherein the plurality of amplifiers are configured in a minimum gain configuration in the output-coupling operating mode of the apparatus (Output couple 1), wherein the coupler includes a bidirectional amplifier configured to be controlled by a coupler control signal to determine a signal flow direction of the coupler in the output-coupling operating mode of the apparatus (Output couple 1).