mhurhangee/ep-ind-claims huggingface dataset:
Thiadiazole of formula: where R 1 represents H or a C 1 -C 25 hydrocarbon group chosen from linear, branched or cyclic alkyl groups and aryl groups which are optionally interrupted by one or more heteroatoms, R 2 represents: - a linear C 2 -C 25 or branched C 3 or C 5 -C 25 alkyl group which is optionally interrupted by one or more heteroatoms and which is optionally substituted by one or more cyclic C 3 -C 10 alkyl or C 6 -C 12 aryl groups, or - a cyclic C 3 -C 10 alkyl group which is optionally interrupted by one or more heteroatoms and which is optionally substituted by one or more linear, branched or cyclic C 1 -C 25 alkyl or C 6 -C 12 aryl groups which are optionally interrupted by one or more heteroatoms. R 1 represents H or a C 1 -C 25 hydrocarbon group chosen from linear, branched or cyclic alkyl groups and aryl groups which are optionally interrupted by one or more heteroatoms, R 2 represents: - a linear C 2 -C 25 or branched C 3 or C 5 -C 25 alkyl group which is optionally interrupted by one or more heteroatoms and which is optionally substituted by one or more cyclic C 3 -C 10 alkyl or C 6 -C 12 aryl groups, or - a cyclic C 3 -C 10 alkyl group which is optionally interrupted by one or more heteroatoms and which is optionally substituted by one or more linear, branched or cyclic C 1 -C 25 alkyl or C 6 -C 12 aryl groups which are optionally interrupted by one or more heteroatoms. - a linear C 2 -C 25 or branched C 3 or C 5 -C 25 alkyl group which is optionally interrupted by one or more heteroatoms and which is optionally substituted by one or more cyclic C 3 -C 10 alkyl or C 6 -C 12 aryl groups, or - a cyclic C 3 -C 10 alkyl group which is optionally interrupted by one or more heteroatoms and which is optionally substituted by one or more linear, branched or cyclic C 1 -C 25 alkyl or C 6 -C 12 aryl groups which are optionally interrupted by one or more heteroatoms.
A nonwoven fabric material comprising at least one layer of long fibres of a biodegradable material having a length varying from about 4 mm to about 60 mm, or of continuous filaments of a biodegradable material, and at least one layer of fibers of a water-absorbent material, characterised in that the nonwoven fabric material has been calendered to partially bond the fibres or filaments composing the nonwoven and cutting the long fibres or continuous filaments in order to weaken the strength of the material, to yield a ratio of MD/CD average tensile strength in the range of 1:1 and 4:1, and the biodegradable material comprises polylactic acid in an amount greater than 10% by weight, based on the nonwoven fabric material.
A base station apparatus, configured to establish a wireless link for a backhaul line with a relay apparatus, provide a first period in which a radio resource is used by the base station apparatus for the backhaul line, and a second period in which the radio resource is used by an access line but not used by the backhaul line, transmit, to a terminal apparatus, a condition under which the radio resource is allowed to be used as the access line, and receive, from the terminal apparatus, when the condition is satisfied, a request for a connection of the access line in the second period. establish a wireless link for a backhaul line with a relay apparatus, provide a first period in which a radio resource is used by the base station apparatus for the backhaul line, and a second period in which the radio resource is used by an access line but not used by the backhaul line, transmit, to a terminal apparatus, a condition under which the radio resource is allowed to be used as the access line, and receive, from the terminal apparatus, when the condition is satisfied, a request for a connection of the access line in the second period.
A device for a floor cleaning machine, wherein the device is suitable for suctioning up a liquid from a floor to be cleaned, and comprises: A) a longitudinal support, which can be attached to a floor cleaning machine, transversely to a movement direction of the same, and which comprises a first end, a second end, a front side, a rear side, a top side, a bottom side and a suction opening that extends through the longitudinal support from the top side to the bottom side; B) a front squeegee blade, which is attached to the longitudinal support in the area of the front side C) a rear squeegee blade, which is attached to the longitudinal support in the area of the rear side; wherein D) the front squeegee blade, the rear squeegee blade and the bottom side of the longitudinal support form a hollow space in the device that is open toward the floor; and E) the bottom side of the longitudinal support comprises at least a first protrusion, which protrudes into the hollow space in an area that borders the suction opening on a side of the longitudinal support directed toward the first or second end (2, 3), and which narrows the hollow space toward the rear squeegee blade; characterized in that F) the hollow space is formed asymmetrically with respect to a center plane of the suction opening which is orthogonal to the front side and to the bottom side of the longitudinal support. A) a longitudinal support, which can be attached to a floor cleaning machine, transversely to a movement direction of the same, and which comprises a first end, a second end, a front side, a rear side, a top side, a bottom side and a suction opening that extends through the longitudinal support from the top side to the bottom side; B) a front squeegee blade, which is attached to the longitudinal support in the area of the front side C) a rear squeegee blade, which is attached to the longitudinal support in the area of the rear side; wherein D) the front squeegee blade, the rear squeegee blade and the bottom side of the longitudinal support form a hollow space in the device that is open toward the floor; and E) the bottom side of the longitudinal support comprises at least a first protrusion, which protrudes into the hollow space in an area that borders the suction opening on a side of the longitudinal support directed toward the first or second end (2, 3), and which narrows the hollow space toward the rear squeegee blade; F) the hollow space is formed asymmetrically with respect to a center plane of the suction opening which is orthogonal to the front side and to the bottom side of the longitudinal support.
A system for providing a plurality of destination options comprising: - a fare learning component (110, 210) connectable to at least one computerised reservation system; - a pair of data structures (220, 230) updatable from the fare learning component, and storing a plurality of travel data, the said travel data comprising at least origin, destination, bookable price and bookable dates; the pair of data structures comprising, on one hand, a graph of nodes with nodes and edges where the nodes are travel destinations and where the edges each reference a lowest travel fare between two nodes they connect, and on the other hand, a tree of fares built for each graph edge and comprising a root holding the lowest travel fare of the edge; - a shopper engine for accepting at least an origin and a date range (630, 640) and interrogating the data structure (220, 230) to generate the plurality of destination options corresponding to the origin and the bookable dates within the date range (630, 640); - a fare path extraction engine configured to extract fare paths from the pair of data structures so as to determine less expensive fare paths, said fare path extraction engine configured to build, for each origin and destination pair, a heap kept organized as a binary tree and configured to accumulate a predetermined maximum number (k) of less expensive fare paths between the origin and the destination during the extraction. - a fare learning component (110, 210) connectable to at least one computerised reservation system; - a pair of data structures (220, 230) updatable from the fare learning component, and storing a plurality of travel data, the said travel data comprising at least origin, destination, bookable price and bookable dates; the pair of data structures comprising, on one hand, a graph of nodes with nodes and edges where the nodes are travel destinations and where the edges each reference a lowest travel fare between two nodes they connect, and on the other hand, a tree of fares built for each graph edge and comprising a root holding the lowest travel fare of the edge; - a shopper engine for accepting at least an origin and a date range (630, 640) and interrogating the data structure (220, 230) to generate the plurality of destination options corresponding to the origin and the bookable dates within the date range (630, 640); - a fare path extraction engine configured to extract fare paths from the pair of data structures so as to determine less expensive fare paths, said fare path extraction engine configured to build, for each origin and destination pair, a heap kept organized as a binary tree and configured to accumulate a predetermined maximum number (k) of less expensive fare paths between the origin and the destination during the extraction.
Coupling device comprising: - at least two jackets (14, 16) for duct ends - the jackets each comprising at least first and second annular ribs housing a first annular sealing element engaged by an inner shell, - each jacket comprising a further rib being a third rib, - wherein said coupling device made of a high-performance thermoplastic material, - wherein said coupling device includes an outer shell (20; 66; 68) having at least one radially inward extending rib, engaging an axially extending recess of said jackets characterized in that - the recess is defined between said further annular rib and a fourth annular rib, to center said inner shell and outer shell (20, 66, 68) in a beneficial position, allowing for both an axial movement of said duct ends (14, 12) relative to one another and/or an angular movement of said duct ends (10, 12) relative to one another, independent from maintaining a fluid-tight connection at said first annular sealing element, respectively. - at least two jackets (14, 16) for duct ends - the jackets each comprising at least first and second annular ribs housing a first annular sealing element engaged by an inner shell, - each jacket comprising a further rib being a third rib, - wherein said coupling device made of a high-performance thermoplastic material, - wherein said coupling device includes an outer shell (20; 66; 68) having at least one radially inward extending rib, engaging an axially extending recess of said jackets characterized in that - the recess is defined between said further annular rib and a fourth annular rib, to center said inner shell and outer shell (20, 66, 68) in a beneficial position, allowing for both an axial movement of said duct ends (14, 12) relative to one another and/or an angular movement of said duct ends (10, 12) relative to one another, independent from maintaining a fluid-tight connection at said first annular sealing element, respectively.
A method of Radio Resource Control, RRC, suspension, implemented in a user equipment, UE, for use with a Radio Access Network, RAN,, and a core network, comprising: the UE suspending an established RRC connection with the RAN so that at least user plane communications are disabled; the UE monitoring for paging, whilst the RRC connection is suspended; and the UE storing RRC connection data related to the suspended RRC connection, said stored RRC connection data being usable by the UE to reactivate the suspended RRC connection; wherein said stored RRC connection data comprises data representing one or more of: • the configuration of radio bearers in the established RRC connection; • security parameters relating to the established RRC connection; • MAC configuration; • Physical Layer configuration; and the UE performing autonomous mobility control by cell selection or reselection processes during the time that the RRC connection is suspended and the UE relinquishing mobility control to the RAN as a result of the reactivation of the suspended RRC connection or a normal RRC connection process to establish a new RRC connection with the UE, wherein the normal RRC connection process involves a random access or paging procedure; and wherein the UE sends a message to inform a node in the Core Network, CN, about suspension of the established RRC connection; wherein the RAN is an Evolved Universal Mobile Telecommunications System, UMTS, Terrestrial Radio Access Network, E-UTRAN. the UE suspending an established RRC connection with the RAN so that at least user plane communications are disabled; the UE monitoring for paging, whilst the RRC connection is suspended; and the UE storing RRC connection data related to the suspended RRC connection, said stored RRC connection data being usable by the UE to reactivate the suspended RRC connection; wherein said stored RRC connection data comprises data representing one or more of: • the configuration of radio bearers in the established RRC connection; • security parameters relating to the established RRC connection; • MAC configuration; • Physical Layer configuration; and • the configuration of radio bearers in the established RRC connection; • security parameters relating to the established RRC connection; • MAC configuration; • Physical Layer configuration; and the UE performing autonomous mobility control by cell selection or reselection processes during the time that the RRC connection is suspended and the UE relinquishing mobility control to the RAN as a result of the reactivation of the suspended RRC connection or a normal RRC connection process to establish a new RRC connection with the UE, wherein the normal RRC connection process involves a random access or paging procedure; and wherein the UE sends a message to inform a node in the Core Network, CN, about suspension of the established RRC connection; wherein the RAN is an Evolved Universal Mobile Telecommunications System, UMTS, Terrestrial Radio Access Network, E-UTRAN.
A received signal processing method, comprising: determining a range of symbol data in a received signal in a time domain; conducting signal integrity evaluation on the received signal within the range of the symbol data; and extracting signal data from the range of the symbol data according to a result of the signal integrity evaluation and conducting a Fast Fourier Transformation, FFT, operation on the signal data, characterized in that conducting the signal integrity evaluation on the received signal within the range of the symbol data comprises: searching data of first L sampling points of the symbol data a n for a multipath stable time point k, wherein 0 ≤ n ≤ CP_SIZE + FFT_SIZE -1; wherein searching the data of the first L sampling points of the symbol data a n for the multipath stable time point k comprising: constructing a first sequence b i according to the first L sampling points of the symbol data a n, wherein b i = a i -a i + FFT_SIZE, 0 ≤ i ≤ L- 1, i is a sequence number of a sampling point and i is an integer, wherein a n is an amplitude sampling value of a sampling point of the symbol data in the time domain, CP SIZE is a size of a Cyclic Prefix, CP, FFT_SIZE is a size of FFT, L = u ∗ CP_SIZE, u is a coefficient, and u is greater than or equal to 1; and searching the first sequence b i for the multipath stable time point k meeting a first condition, wherein the first condition comprises: an absolute value of each element in the first sequence b i starting from a sequence number k being less than or equal to a threshold value A, namely, | b j | ≤ A, k ≤ j ≤ L -1, wherein j is a sequence number of a sampling point and j is an integer. determining a range of symbol data in a received signal in a time domain; conducting signal integrity evaluation on the received signal within the range of the symbol data; and extracting signal data from the range of the symbol data according to a result of the signal integrity evaluation and conducting a Fast Fourier Transformation, FFT, operation on the signal data, characterized in that conducting the signal integrity evaluation on the received signal within the range of the symbol data comprises: searching data of first L sampling points of the symbol data a n for a multipath stable time point k, wherein 0 ≤ n ≤ CP_SIZE + FFT_SIZE -1; constructing a first sequence b i according to the first L sampling points of the symbol data a n, wherein b i = a i -a i + FFT_SIZE, 0 ≤ i ≤ L- 1, i is a sequence number of a sampling point and i is an integer, wherein a n is an amplitude sampling value of a sampling point of the symbol data in the time domain, CP SIZE is a size of a Cyclic Prefix, CP, FFT_SIZE is a size of FFT, L = u ∗ CP_SIZE, u is a coefficient, and u is greater than or equal to 1; and searching the first sequence b i for the multipath stable time point k meeting a first condition, wherein the first condition comprises: an absolute value of each element in the first sequence b i starting from a sequence number k being less than or equal to a threshold value A, namely, | b j | ≤ A, k ≤ j ≤ L -1, wherein j is a sequence number of a sampling point and j is an integer.
A reel assembly for a watering hose for coupling within a housing, comprising: an axle; a reel defining a rotational axis (X-X'), wherein the reel is rotatably mounted around the axle to allow winding of the watering hose on the reel; a frame which houses the reel; and one or more fixing units to removably fix the reel assembly inside the housing; wherein the housing includes a pair of side walls and a pair of front walls, wherein at least one of the pair of side walls and the pair of front walls includes a housing inlet, wherein the housing inlet is or can be associated with a water connector to fluidly couple the watering hose with a fluid line or hose to supply water from an external fluid source; and wherein the reel assembly further comprises a blocking mechanism that operatively couples with the reel assembly and cooperates with the reel for selective rotation of the reel; characterized in that: the blocking mechanism disallows rotation of the reel in absence of coupling of the reel assembly within the housing. an axle; a reel defining a rotational axis (X-X'), wherein the reel is rotatably mounted around the axle to allow winding of the watering hose on the reel; a frame which houses the reel; and one or more fixing units to removably fix the reel assembly inside the housing; wherein the housing includes a pair of side walls and a pair of front walls, wherein at least one of the pair of side walls and the pair of front walls includes a housing inlet, wherein the housing inlet is or can be associated with a water connector to fluidly couple the watering hose with a fluid line or hose to supply water from an external fluid source; and wherein the reel assembly further comprises a blocking mechanism that operatively couples with the reel assembly and cooperates with the reel for selective rotation of the reel; characterized in that: the blocking mechanism disallows rotation of the reel in absence of coupling of the reel assembly within the housing.
A device for centring and guiding an aircraft turbine engine shaft, this device comprising: - an outer ring of a rolling bearing, this ring extending about a main axis and comprising orifices (42a, 42b) arranged about this axis and oriented parallel to this axis, - an annular bearing support extending around the main axis and at least partly around the ring, this support comprising orifices (44a, 44b) and openings (46a, 46b) arranged around this axis and oriented parallel to this axis, and - a series of studs (40, 41) for connecting the ring to the support, these studs being distributed around the main axis and having axes of elongation substantially parallel to the main axis, each of these studs comprising a body (40c, 41c) comprising a first longitudinal end (40a, 41a) engaged in one of the orifices (42a, 42b) of the ring and a second longitudinal end (40b, 41b) engaged in one of the orifices (44a, 44b) of the support, the body of each of said studs passing through one of the openings (46a, 46b) of the support, characterised in that some of said studs (40, 41), referred to as first studs, have their bodies passing through first openings with a first positive clearance and a second clearance of almost zero, said first clearance being oriented in at least a first direction radial with respect to said axis of elongation, and said second clearance being oriented in at least one second direction radial with respect to said axis of elongation, different from the first direction, said first and second clearances (411, 412) being configured so that the device has different amplitudes of displacement in at least two directions perpendicular to said main axis. - an outer ring of a rolling bearing, this ring extending about a main axis and comprising orifices (42a, 42b) arranged about this axis and oriented parallel to this axis, - an annular bearing support extending around the main axis and at least partly around the ring, this support comprising orifices (44a, 44b) and openings (46a, 46b) arranged around this axis and oriented parallel to this axis, and - a series of studs (40, 41) for connecting the ring to the support, these studs being distributed around the main axis and having axes of elongation substantially parallel to the main axis, each of these studs comprising a body (40c, 41c) comprising a first longitudinal end (40a, 41a) engaged in one of the orifices (42a, 42b) of the ring and a second longitudinal end (40b, 41b) engaged in one of the orifices (44a, 44b) of the support, the body of each of said studs passing through one of the openings (46a, 46b) of the support,
A pharmaceutical composition comprising i) as therapeutic active agent from 5×10 10 to 1×10 12 CFU of lactobacilli and ii) from 15 to 300 mg of thiosulfate as combination products, for use as a first-line treatment of candidiasis and recurrent candidiasis.
Robotic cleaning device comprising: a main body; a propulsion system (112, 113, 115a, 115b) configured to move the robotic cleaning device over a surface to be cleaned; a controller configured to control the propulsion system to move the robotic cleaning device over the surface to be cleaned; and at least one rotatable side brush arranged to sweep debris from the surface to be cleaned; the robotic cleaning device further being characterized in comprising a mechanism configured to at least partly retract said at least one rotatable side brush into a space arranged inside the main body upon receiving a control signal from the controller, such that the rotatable side brush is moved out of contact with the surface to be cleaned. a main body; a propulsion system (112, 113, 115a, 115b) configured to move the robotic cleaning device over a surface to be cleaned; a controller configured to control the propulsion system to move the robotic cleaning device over the surface to be cleaned; and at least one rotatable side brush arranged to sweep debris from the surface to be cleaned; the robotic cleaning device further being characterized in comprising a mechanism configured to at least partly retract said at least one rotatable side brush into a space arranged inside the main body upon receiving a control signal from the controller, such that the rotatable side brush is moved out of contact with the surface to be cleaned.