mhurhangee/ep-ind-claims huggingface dataset:
A bone anchor assembly comprising: a bone anchor having a proximal head and a distal shaft configured to engage bone, a receiver member for receiving a spinal fixation element to be coupled to the bone anchor, the receiver member having a proximal end having a pair of spaced apart arms (28A, 28B) defining a recess therebetween, the arms including an inner thread, a distal end having a distal end surface defining an opening through which at least a portion of the bone anchor extends, and a closure mechanism (16; 115) positionable between the arms to capture the spinal fixation element within the receiver member and fix the spinal fixation element with respect to the receiver member, the closure mechanism including an outer thread for engaging the inner thread on the arms of the receiver member, characterised in that the inner thread and the outer thread have a thread angle between 5° and 25°. a bone anchor having a proximal head and a distal shaft configured to engage bone, a receiver member for receiving a spinal fixation element to be coupled to the bone anchor, the receiver member having a proximal end having a pair of spaced apart arms (28A, 28B) defining a recess therebetween, the arms including an inner thread, a distal end having a distal end surface defining an opening through which at least a portion of the bone anchor extends, and a closure mechanism (16; 115) positionable between the arms to capture the spinal fixation element within the receiver member and fix the spinal fixation element with respect to the receiver member, the closure mechanism including an outer thread for engaging the inner thread on the arms of the receiver member, characterised in that the inner thread and the outer thread have a thread angle between 5° and 25°.
A staple cartridge configured to be removably retained by a cartridge channel of a surgical instrument, the staple cartridge comprising: a proximal end; a distal end; a cartridge body; a staple supported in the cartridge body; a sled; a staple driver, wherein the sled is configured to deploy the staple from the cartridge body by moving the staple driver from a unfired position to a fired position; and wherein the staple cartridge is characterized by: a retaining member configured to ensure a tight attachment between the staple cartridge and a cartridge channel when the cartridge is in an unfired condition, wherein the retaining member is configured to rest against the staple driver in a biased configuration while the driver is in the unfired position, wherein the retaining member is configured to move to a less biased configuration when the staple driver is moved to the fired position to yield a reduced attachment between the fired cartridge and the cartridge channel. a proximal end; a distal end; a cartridge body; a staple supported in the cartridge body; a sled; a staple driver, wherein the sled is configured to deploy the staple from the cartridge body by moving the staple driver from a unfired position to a fired position; and wherein the staple cartridge is characterized by: a retaining member configured to ensure a tight attachment between the staple cartridge and a cartridge channel when the cartridge is in an unfired condition, wherein the retaining member is configured to rest against the staple driver in a biased configuration while the driver is in the unfired position, wherein the retaining member is configured to move to a less biased configuration when the staple driver is moved to the fired position to yield a reduced attachment between the fired cartridge and the cartridge channel.
A structured gel-filled cosmetic mask, comprising a fixing skeleton, a gel filling band and a free-flow gel layer in an integrally formed structure, wherein the fixing skeleton comprises a cavity of a concave structure, the cavity is filled with a premade filling material to form the gel filling band, and the gel in the gel filling band extends outward to form the free-flow gel layer.
An unmanned aerial vehicle system comprising a first, multi-rotor carrier aircraft (101, 501a, 701a, 901) and a second, carried aircraft (120, 520) having a capture device (523a, 523b), wherein the first, multi-rotor carrier aircraft comprises: an airframe; a plurality of rotors carried by the airframe, the plurality of rotors being positioned to support the carrier aircraft in hover; a battery carried by the airframe and operatively coupled to the rotors to power the rotors; a launch fixture positioned to releasably attach to the second, carried aircraft, wherein the launch fixture includes a release mechanism and a downwardly-sloped slot positioned to launch the carried aircraft in a downward direction relative to the airframe; and a capture line (106, 506a, 506b, 706, 906) deployable to hang from the carrier aircraft, the capture line being sized to releasably engage with the capture device of the carried aircraft. an airframe; a plurality of rotors carried by the airframe, the plurality of rotors being positioned to support the carrier aircraft in hover; a battery carried by the airframe and operatively coupled to the rotors to power the rotors; a launch fixture positioned to releasably attach to the second, carried aircraft, wherein the launch fixture includes a release mechanism and a downwardly-sloped slot positioned to launch the carried aircraft in a downward direction relative to the airframe; and a capture line (106, 506a, 506b, 706, 906) deployable to hang from the carrier aircraft, the capture line being sized to releasably engage with the capture device of the carried aircraft.
A method for removing a gaseous and/or vaporous decontaminant, in particular hydrogen peroxide vapor, from a space to be decontaminated by means of a decontamination assembly, in particular for pharmaceutical applications, including a space to be decontaminated, in particular an isolator space, as well as a purification device configured to withdraw a gaseous and/or vaporous decontaminant, in particular hydrogen peroxide, from the ambient air, wherein the cleaning device is arranged in such a way that the ambient air can be conveyed by at least one blower through this device in a circulating manner, and wherein the purification device includes a catalyst, in particular MnO 2 or palladium, for chemically cleaving the decontaminant, or consists of such a catalyst, and wherein the purification device is arranged in a recirculating air-producing space arranged above the space to be decontaminated or in a recirculating-air line configured as a bypass between a closable fresh air line and a closable waste air line, and wherein the ambient air of the space to be decontaminated is conveyed, by means of the blower, so as to circulate through the purification device, said apparatus removing, in particular catalytically removing, the decontaminant from the ambient air, characterized in that the blower is or remains turned off at least for the largest time period in a conditioning phase, during which decontaminant is fed and/or during an exposure phase, during which the decontaminant takes effect. is arranged in a recirculating air-producing space arranged above the space to be decontaminated or in a recirculating-air line configured as a bypass between a closable fresh air line and a closable waste air line,
A photosensitive resin composition, comprising: an alkali-soluble resin; a compound which generates an acid when exposed to light; a thermal crosslinking agent; a nitrogen-containing aromatic compound represented by the following formula: wherein R 1 represents a hydrogen atom or a hydrocarbon group; R 2 represents a hydrogen atom, an amino group or a phenyl group; and A and B each independently represent a nitrogen atom, or a carbon atom and a hydrogen atom bonded thereto; and further comprising an acryl resin. an alkali-soluble resin; a compound which generates an acid when exposed to light; a thermal crosslinking agent; a nitrogen-containing aromatic compound represented by the following formula: wherein R 1 represents a hydrogen atom or a hydrocarbon group; R 2 represents a hydrogen atom, an amino group or a phenyl group; and A and B each independently represent a nitrogen atom, or a carbon atom and a hydrogen atom bonded thereto; and further comprising an acryl resin.
A method for isolating nucleic acids from rare cells within a heterogeneous population of cells, comprising: (a) partitioning the heterogeneous population of cells into a plurality of bins, such that the concentration of the rare cells relative to non-rare cells is increased within the bins containing the rare cells by a factor of at least X-fold, where X is the number of bins divided by the number of rare cells in the heterogeneous population of cells, wherein the rare cells are present in the heterogeneous population of cells at a concentration of 1 in 1,000 to 1 in 100,000,000; (b) imaging the entire area of each bin to determine which bins contain the rare cells; (c) locating the positions of the rare cells within the bins containing the rare cells; (d) directing an energy beam to the positions of the rare cells, within the bins containing the rare cells, to cause specific lysis of the rare cells without significant lysis of non-rare cells, and release of the nucleic acids from the rare cells into the medium, wherein less than 10% of non-rare cells in the heterogeneous population of cells within the bin are lysed; and (e) collecting the medium containing released nucleic acids from the bin containing the rare cells that have been lysed, resulting in collection of the nucleic acids from the rare cells. (a) partitioning the heterogeneous population of cells into a plurality of bins, such that the concentration of the rare cells relative to non-rare cells is increased within the bins containing the rare cells by a factor of at least X-fold, where X is the number of bins divided by the number of rare cells in the heterogeneous population of cells, wherein the rare cells are present in the heterogeneous population of cells at a concentration of 1 in 1,000 to 1 in 100,000,000; (b) imaging the entire area of each bin to determine which bins contain the rare cells; (c) locating the positions of the rare cells within the bins containing the rare cells; (d) directing an energy beam to the positions of the rare cells, within the bins containing the rare cells, to cause specific lysis of the rare cells without significant lysis of non-rare cells, and release of the nucleic acids from the rare cells into the medium, wherein less than 10% of non-rare cells in the heterogeneous population of cells within the bin are lysed; and (e) collecting the medium containing released nucleic acids from the bin containing the rare cells that have been lysed, resulting in collection of the nucleic acids from the rare cells.
Self-propelled working machine with working units (7, 11, 14), the working parameters of which are adjustable and which is moved at a ground speed, wherein the ground speed is regulated automatically according to at least two travel strategies, • wherein the travel strategy is changeable depending on the "non-use" mode or the "in-use" mode of the working machine, • wherein a forward-travel regulator is connected to one or more sensors (23, 25, 26, 29, 30, 34, 37, 39) and, through evaluation of the signals (BS, SHS, DSS, VS, AS, SWS, DS, KVS) generated by the sensor or sensors (23, 25, 26, 29, 30, 34, 37, 39, 50), detects whether the working machine is in the "non-use" mode or in the "in-use" mode, • wherein the ground speed is regulated depending on at least one crop parameter and/or at least one working parameter of the working machine when the forward-travel regulator detects that the working machine is in the "in-use" mode, characterized in that the regulation of the ground speed is decoupled from crop parameters and/or working parameters of the working machine when the forward-travel regulator detects that the working machine is in the "non-use" mode, with the result that the forward-travel regulator regulates the ground speed independently of parameters which are not relevant in this case, wherein the ground speed in the "non-use" mode is controlled by the forward-travel regulator via a characteristic curve. • wherein the travel strategy is changeable depending on the "non-use" mode or the "in-use" mode of the working machine, • wherein a forward-travel regulator is connected to one or more sensors (23, 25, 26, 29, 30, 34, 37, 39) and, through evaluation of the signals (BS, SHS, DSS, VS, AS, SWS, DS, KVS) generated by the sensor or sensors (23, 25, 26, 29, 30, 34, 37, 39, 50), detects whether the working machine is in the "non-use" mode or in the "in-use" mode, • wherein the ground speed is regulated depending on at least one crop parameter and/or at least one working parameter of the working machine when the forward-travel regulator detects that the working machine is in the "in-use" mode,
A method for managing a plurality of subscriptions with subscription authorization data on a security element of a mobile end device for logging into a respective mobile radio network (30, 40), wherein the security element has a plurality of memory locations for storing the plurality of subscriptions (18a-d), wherein the plurality of subscriptions (18a-d) comprises a primary subscription and at least one secondary subscription (18b-d), wherein in the primary subscription there is deposited a set of rules which determines whether the at least one secondary subscription (18b-d) on the security element can be used, wherein alongside the primary subscription at least one further primary subscription on the security element can be used, and the plurality of subscriptions (18a-d) comprise at least two secondary subscriptions (18b-d), wherein the set of rules deposited in the primary subscription only holds for a portion of the at least two secondary subscriptions (18b-d), and in the further primary subscription there is deposited a set of rules which determines whether a secondary subscription of the other portion of the at least two secondary subscriptions (18b-d) on the security element can be used.
An extraction device for removing an adapter from a port formed in a structure, the extraction device comprising: an end wall defining an external face of the extraction device; and a side wall extending axially away from a periphery of the end wall and terminating at an end face of the extraction device, the end face having a larger dimension than the port so as to be capable to abut the structure adjacent to a periphery of the port, the side wall including an inner surface and an outer surface, the inner surface having a threaded portion; wherein the end wall closes one end of the side wall; and wherein the inner surface includes a trailing non-threaded portion extending between the threaded portion and the end wall, wherein the inner surface includes a leading non-threaded portion extending between the end face and the threaded portion, wherein the outer surface defines a shoulder oriented transversely to a longitudinal axis of the extraction device. an end wall defining an external face of the extraction device; and a side wall extending axially away from a periphery of the end wall and terminating at an end face of the extraction device, the end face having a larger dimension than the port so as to be capable to abut the structure adjacent to a periphery of the port, the side wall including an inner surface and an outer surface, the inner surface having a threaded portion; wherein the end wall closes one end of the side wall; and wherein the inner surface includes a trailing non-threaded portion extending between the threaded portion and the end wall, wherein the inner surface includes a leading non-threaded portion extending between the end face and the threaded portion, wherein the outer surface defines a shoulder oriented transversely to a longitudinal axis of the extraction device.
A mobile communication method characterized by comprising: step A of establishing, upon receipt of a control channel establishment request for connection-type communication from a priority mobile station in a femto-cell radio base station, a control channel for the priority mobile station by using a first reserved resource reserved for the priority mobile station in the femto-cell radio base station; step B of establishing a data channel for the priority mobile station in the femto-cell radio base station in response to a data channel establishment request for connection-type communication transmitted from the priority mobile station through the established control channel for the priority mobile station; step C of establishing, upon receipt of a control channel establishment request for connection-type communication from a non-priority mobile station in the femto-cell radio base station, a control channel for the non-priority mobile station by using a non-reserved resource that is not reserved for any mobile station in the femto-cell radio base station; and step D of establishing a data channel for the non-priority mobile station in the femto-cell radio base station in response to a data channel establishment request for connection-type communication transmitted from the non-priority mobile station through the established control channel for the non-priority mobile station. step A of establishing, upon receipt of a control channel establishment request for connection-type communication from a priority mobile station in a femto-cell radio base station, a control channel for the priority mobile station by using a first reserved resource reserved for the priority mobile station in the femto-cell radio base station; step B of establishing a data channel for the priority mobile station in the femto-cell radio base station in response to a data channel establishment request for connection-type communication transmitted from the priority mobile station through the established control channel for the priority mobile station; step C of establishing, upon receipt of a control channel establishment request for connection-type communication from a non-priority mobile station in the femto-cell radio base station, a control channel for the non-priority mobile station by using a non-reserved resource that is not reserved for any mobile station in the femto-cell radio base station; and step D of establishing a data channel for the non-priority mobile station in the femto-cell radio base station in response to a data channel establishment request for connection-type communication transmitted from the non-priority mobile station through the established control channel for the non-priority mobile station.
A container and towel dispensing system comprising: a towel dispenser; a container below the towel dispenser and defining an opening facing the towel dispenser; and an insert, characterized in that the insert comprises: a sleeve comprising: a pair of spaced apart first walls; a pair of spaced apart second walls (40, 42) extending transversely between the first walls; and a lower edge and an upper edge; wherein the insert is moveable between a first position wherein the sleeve is inside the container, a second position wherein the insert is partially removed from the container and the sleeve is positioned on the edge of the opening of the container, and a third position wherein the insert is fully removed from the container; and wherein the insert is moveable through the opening of the container from the first position to the third position. a towel dispenser; a container below the towel dispenser and defining an opening facing the towel dispenser; and an insert, a sleeve comprising: a pair of spaced apart first walls; a pair of spaced apart second walls (40, 42) extending transversely between the first walls; and a lower edge and an upper edge; a pair of spaced apart first walls; a pair of spaced apart second walls (40, 42) extending transversely between the first walls; and a lower edge and an upper edge;
Absorbent structure for reducing the propagation of sound waves transmitted by noisy devices of the rotor or motor type, comprising a rigid partition, at least one porous wall and separation means for arranging the porous wall at a predetermined distance from the rigid partition, delimiting cavities having a height h1 between the porous wall and the rigid partition, the height h1 being determined in order to obtain maximum absorption of the sound waves transmitted at a given basic frequency F1, the structure comprising complementary absorption means in order to obtain maximum absorption of the sound waves transmitted at least at one additional basic frequency Fi, i being a whole number greater than or equal to 2, the porous wall (4, 5) comprising at least a first layer (4a, 5a) and at least a second layer (4b, 5b) of fibre felt, characterised in that the first layer (4a, 5a) is formed as a grid with fine mesh and in that the first layer (4a, 5a) is positioned on the second layer (4b, 5b) of fibre felt in order to constitute an assembly of two layers, the second layer (4b, 5b) of fibre felt being positioned on the separation means.
A method for operating a base station, the method comprising: at the base station transmitting random access configuration information for 2-step random access; receiving, from a plurality user equipment devices, UEs, a first plurality of initial messages of 2-step random access, MsgA, according to the random access configuration information for 2-step random access; and transmitting, to the plurality of UEs, a plurality of corresponding responses to the first plurality of initial messages of 2-step random access, MsgA, the responses comprising: a first response message for a first UE of the plurality of UEs, the first response message including a fallback random access response, RAR; a second response message for a second UE of the plurality of UEs, the second response message including a success RAR and a subheader indicating whether or not a downlink, DL, radio resource control, RRC, message is included in the second response message, wherein the DL RRC message is in a sub protocol data unit, subPDU, of a protocol data unit, PDU, wherein the subPDU associated with the DL RRC message successively follows the subheader and the success RAR. at the base station transmitting random access configuration information for 2-step random access; receiving, from a plurality user equipment devices, UEs, a first plurality of initial messages of 2-step random access, MsgA, according to the random access configuration information for 2-step random access; and transmitting, to the plurality of UEs, a plurality of corresponding responses to the first plurality of initial messages of 2-step random access, MsgA, the responses comprising: a first response message for a first UE of the plurality of UEs, the first response message including a fallback random access response, RAR;