mhurhangee/ep-ind-claims huggingface dataset:
Head suspension for a headgear, preferably for a respiratory protection hood, comprising a headband with a front headband which runs around the front of the head of a wearer, and a rear headband which is located on the rear of the head of the wearer, wherein the rear headband is connected to the front headband by means of two swivel joints, characterized in that the swivel joints in a respective adjustment position at least in certain areas are freely rotatable and in a respective locking position are not rotatable, wherein the swivel joints, each with a relative movement of the rotating axis of the respective swivel joint, are transferable from the adjustment position into the locking position and back.
An air filter housing (20, 20a) having an inner housing space (21, 21a) adapted to receive a tubular filter element (5, 5a, 5b), said air filter housing (20, 20a) having an inlet (24, 24a), a first outlet (23, 23a) located in a first end (36, 36a) of said air filter housing (20, 20a), and a second outlet (30, 30a) located in a second end (28, 28a) of said air filter housing (20, 20a), wherein said second end (28, 28a) is located opposite to said first end (36, 36a) in relation to said inner housing space (21, 21a), and said second outlet (30, 30a) has an offset position in relation to said first outlet (23, 23a) as seen in a transversal direction, which is perpendicular to a longitudinal direction and a longitudinal centre axis of said air filter housing (20, 20a), wherein said air filter housing further comprises housing lid (35, 35a) encompassing said second outlet (30, 30a), said housing lid (35, 35a) comprising a protruding pipe portion (31, 31a) at said second outlet (30, 30a) for connection to an adjoining pipe, characterized in that said protruding pipe portion is arranged at the offset position and has an extension into said inner housing space (21, 21a) of the air filter housing.
Nacelle cover for a wind turbine, comprising a body with an approximately cuboid shape, wherein the approximately cuboid body is composed of a plurality of cover parts which have an inner side and an outer side, wherein the cover parts are rectangular and in the form of a thin-walled panel element, and comprising a supporting structure which has a frame composed of metal profiles having transverse and longitudinal struts and of lateral posts, to which supporting structure the cover parts are attached, wherein at least two reinforcing profiles are arranged, in a longitudinal and/or transverse direction with respect to the rotor axis, on the inner side of the cover parts and are connected thereto, and in that the cover parts are attached to the supporting structure by means of the reinforcing profiles, wherein the reinforcing profiles are in the form of elongate hollow profiles, characterized in that the hollow profiles consist of a multiply angled metal sheet which is closed on the longitudinal side, or consist of an open, multiply angled metal sheet and have an open trapezoid cross section, wherein the reinforcing profiles with the open trapezoid cross section each have, on their longitudinal sides, an integrally formed tab for connection to the cover part. and in that the cover parts are attached to the supporting structure by means of the reinforcing profiles, wherein the reinforcing profiles are in the form of elongate hollow profiles, characterized in that the hollow profiles consist of a multiply angled metal sheet which is closed on the longitudinal side, or consist of an open, multiply angled metal sheet and have an open trapezoid cross section, wherein the reinforcing profiles with the open trapezoid cross section each have, on their longitudinal sides, an integrally formed tab for connection to the cover part.
A method of securely establishing network communication sessions for joining one or more joining devices to a mesh network, the method comprising: establishing (404, 1402) a secure commissioning communication session between a commissioning device and a border router of the mesh network, said establishing (404, 1402) the secure commissioning communication session comprising: sending, via the border router, a petition from the commissioning device to a leader device of the mesh network to request acceptance of the commissioning device as an active commissioner for the mesh network; and receiving, via the border router, an indication of an acceptance of the petition from the leader device; activating (414, 630, 1404) joining for the mesh network, said activating comprising sending a management message to the leader device to make the mesh network joinable, the management message effective to enable the leader device to update network data for the mesh network and propagate the network data to one or more router devices (102, 104) in the mesh network; receiving (420, 712, 1406), by the commissioning device, a request from one of the joining devices to join the mesh network; establishing (422, 1408) a secure joiner communication session between the commissioning device and the joining device; and joining (428, 1412) the joining device to the mesh network. establishing (404, 1402) a secure commissioning communication session between a commissioning device and a border router of the mesh network, said establishing (404, 1402) the secure commissioning communication session comprising: sending, via the border router, a petition from the commissioning device to a leader device of the mesh network to request acceptance of the commissioning device as an active commissioner for the mesh network; and receiving, via the border router, an indication of an acceptance of the petition from the leader device; sending, via the border router, a petition from the commissioning device to a leader device of the mesh network to request acceptance of the commissioning device as an active commissioner for the mesh network; and receiving, via the border router, an indication of an acceptance of the petition from the leader device; activating (414, 630, 1404) joining for the mesh network, said activating comprising sending a management message to the leader device to make the mesh network joinable, the management message effective to enable the leader device to update network data for the mesh network and propagate the network data to one or more router devices (102, 104) in the mesh network; receiving (420, 712, 1406), by the commissioning device, a request from one of the joining devices to join the mesh network; establishing (422, 1408) a secure joiner communication session between the commissioning device and the joining device; and joining (428, 1412) the joining device to the mesh network.
A method of evaluating whether a kidney graft in a kidney transplant recipient will survive or be lost, wherein said transplant recipient has experienced at least one episode of acute rejection of said graft, the method comprising: assessing expression of at least MAPK9 in a peripheral blood sample from the transplant recipient to produce an expression profile therefor; and comparing the expression profile to a reference expression profile and determining similarity or dissimilarity of the expression profile to the reference expression profile to provide a prediction of whether the graft will survive or be lost. assessing expression of at least MAPK9 in a peripheral blood sample from the transplant recipient to produce an expression profile therefor; and comparing the expression profile to a reference expression profile and determining similarity or dissimilarity of the expression profile to the reference expression profile to provide a prediction of whether the graft will survive or be lost.
A fuel cell stack comprising: a plurality of mutually contiguous fuel cells, each fuel cell comprising an electrode assembly including a proton exchange membrane sandwiched between a cathode catalyst and catalyst support and anode catalyst and catalyst support, a porous, hydrophilic anode water transport plate disposed contiguously with the anode electrode support, a porous, hydrophilic cathode water transport plate disposed contiguously with the cathode catalyst support; an elastomer sealant covering edges of said fuel cells in areas where external manifolds are sealed to the fuel cells; characterized by: an elastomer-impervious material disposed within the full thickness of each water transport plate in the vicinity of the elastomer sealant. a plurality of mutually contiguous fuel cells, each fuel cell comprising an electrode assembly including a proton exchange membrane sandwiched between a cathode catalyst and catalyst support and anode catalyst and catalyst support, a porous, hydrophilic anode water transport plate disposed contiguously with the anode electrode support, a porous, hydrophilic cathode water transport plate disposed contiguously with the cathode catalyst support; an elastomer sealant covering edges of said fuel cells in areas where external manifolds are sealed to the fuel cells; characterized by: an elastomer-impervious material disposed within the full thickness of each water transport plate in the vicinity of the elastomer sealant. an elastomer-impervious material disposed within the full thickness of each water transport plate in the vicinity of the elastomer sealant.
A construct comprising, in combination: a ligand that specifically binds to EphA2, EphA3, and EphB2; a ligand that binds to IL-13Rα2; and at least one effector molecule wherein said at least one effector molecule comprises a therapeutic agent, a nanoparticle, a detectable group, a lipid, or a liposome; wherein said ligand that specifically binds to EphA2, EphA3 and EphB2 is eA5, a mutant of eA5, or an EphA2, EphA3 and EphB2 binding fragment thereof; optionally wherein said construct is a fusion protein and/or a covalent conjugate. a ligand that specifically binds to EphA2, EphA3, and EphB2; a ligand that binds to IL-13Rα2; and at least one effector molecule wherein said at least one effector molecule comprises a therapeutic agent, a nanoparticle, a detectable group, a lipid, or a liposome; wherein said ligand that specifically binds to EphA2, EphA3 and EphB2 is eA5, a mutant of eA5, or an EphA2, EphA3 and EphB2 binding fragment thereof; optionally wherein said construct is a fusion protein and/or a covalent conjugate.
A node for a communications network having a GMPLS control plane distributed across multiple nodes, the node having: a controller arranged to run protocols of the GMPLS control plane an event logger for logging events in the operation of the GMPLS control plane protocols at the node, a local timing reference synchronised to a common network clock, and an interface for the event logger to communicate with an external log server at a different location, the event logger being arranged to use the local timing reference to determine a time for each logged event and to send an indication to the external log server of the logged events and their times; wherein the external log server is also synchronised to the common network clock; wherein the event logger is arranged to send also an indication of which of the protocols (320, 350, 360) of the GMPLS control plane each event relates to. a controller arranged to run protocols of the GMPLS control plane an event logger for logging events in the operation of the GMPLS control plane protocols at the node, a local timing reference synchronised to a common network clock, and an interface for the event logger to communicate with an external log server at a different location, the event logger being arranged to use the local timing reference to determine a time for each logged event and to send an indication to the external log server of the logged events and their times; wherein the external log server is also synchronised to the common network clock; wherein the event logger is arranged to send also an indication of which of the protocols (320, 350, 360) of the GMPLS control plane each event relates to. wherein the external log server is also synchronised to the common network clock; wherein the event logger is arranged to send also an indication of which of the protocols (320, 350, 360) of the GMPLS control plane each event relates to.
A hemostatic composition comprising: cellulose-based fibers having a size distribution of D90 of less than 350μm, and D50 of less than 167μm, the fibers are at a concentration range of 83.5%-90.0% w/w of the entire composition; an omega amino carboxylic acid at a concentration range of 2.5%-5.0% w/w of the entire composition; protamine salt at a concentration range of 2.5%-5.0% w/w of the entire composition; a divalent cation, the cation concentration being 1.3%-1.8% w/w of the entire composition, wherein the composition is in the form of a powder and/or aggregates.
A method for making a gasket comprising: molding an elastomeric material in a mold to form a gasket that comprises an outer portion folded over an inner portion so as to define an inner annular space between and bounded by said outer and inner portions (12, 14), and wherein one or more apertures are formed in a side wall of said gasket, which are in fluid communication with said inner annular space, and wherein said one or more apertures overlie said inner annular space, characterized in that said one or more apertures fluidly communicate along their length with said inner annular space.
A cleaning robot, comprising: a chassis; a drive connected to the chassis and configured to drive the robot across a floor surface; a cleaning head assembly coupled to the chassis and positioned to engage the floor surface while the robot is maneuvered by the drive; and a controller circuit in communication with the cleaning head assembly, the controller circuit configured to: determine a flooring type associated with a cleaning characteristic of the robot, detect a change in operation of the cleaning head assembly caused by the robot crossing a flooring discontinuity as a change in resistance to rotation of a motorized roller (110; 112) of the cleaning head, and alter the cleaning characteristic of the robot based on detecting a change operation in the cleaning head assembly, wherein the controller circuit is configured to identify a change in flooring type across the flooring discontinuity by determining a change in a class of the floor surface, and characterized in that: the controller circuit is configured to determine a class of the floor surface based on a probabilistic classifier model. a chassis; a drive connected to the chassis and configured to drive the robot across a floor surface; a cleaning head assembly coupled to the chassis and positioned to engage the floor surface while the robot is maneuvered by the drive; and a controller circuit in communication with the cleaning head assembly, the controller circuit configured to: determine a flooring type associated with a cleaning characteristic of the robot, detect a change in operation of the cleaning head assembly caused by the robot crossing a flooring discontinuity as a change in resistance to rotation of a motorized roller (110; 112) of the cleaning head, and alter the cleaning characteristic of the robot based on detecting a change operation in the cleaning head assembly, wherein the controller circuit is configured to identify a change in flooring type across the flooring discontinuity by determining a change in a class of the floor surface, and characterized in that: the controller circuit is configured to determine a class of the floor surface based on a probabilistic classifier model. determine a flooring type associated with a cleaning characteristic of the robot, detect a change in operation of the cleaning head assembly caused by the robot crossing a flooring discontinuity as a change in resistance to rotation of a motorized roller (110; 112) of the cleaning head, and alter the cleaning characteristic of the robot based on detecting a change operation in the cleaning head assembly, wherein the controller circuit is configured to identify a change in flooring type across the flooring discontinuity by determining a change in a class of the floor surface, and characterized in that: the controller circuit is configured to determine a class of the floor surface based on a probabilistic classifier model.
A method for generating a preamble for use in a cable transmission system, the method comprising the steps of: inserting a selected complementary sequence having a length according to cable channel conditions as a header into even numbered beginning carriers of a preamble frequency domain representation, said beginning carriers being lowest frequency carriers; mapping the complementary sequence into modulation symbols allocated to the even numbered beginning carriers; protecting signaling bits of the system with error correction codes; mapping the protected signaling bits into modulation symbols of orthogonal codes allocated to adjacent even numbered subsequent carriers having the same frequency domain channel gain coefficients, the subsequent carriers being subsequent to the beginning carriers; and transforming the preamble to a time domain. inserting a selected complementary sequence having a length according to cable channel conditions as a header into even numbered beginning carriers of a preamble frequency domain representation, said beginning carriers being lowest frequency carriers; mapping the complementary sequence into modulation symbols allocated to the even numbered beginning carriers; protecting signaling bits of the system with error correction codes; mapping the protected signaling bits into modulation symbols of orthogonal codes allocated to adjacent even numbered subsequent carriers having the same frequency domain channel gain coefficients, the subsequent carriers being subsequent to the beginning carriers; and transforming the preamble to a time domain.
An undercarriage of an agricultural machine that is towed or that is hitched in semi-mounted fashion to an agricultural towing machine or that is self-propelled, which agricultural machine has several packer wheels, support wheels, and/or running wheels that are, in particular, fitted with pneumatic tires, wherein in each case at least two running wheels, which are arranged as a running wheel pair next to each other and offset to each other in driving direction or arranged one after another, are held and/or movably mounted on a machine frame (22, 24, 44) via a common suspension, characterised in that the respective running wheel pair is mounted on an axle rocker, which is pivotably mounted on the machine frame (22, 24, 44), and which has a defined pivotability by a pivot angle in relation to the machine frame (22, 24, 44), and wherein at least one running wheel of the respective running wheel pair has a braking device, which is supported against a suspension section of the suspension or, as the case may be, of the machine frame (22, 24), via at least one support strut and/or one linkage and/or one linkage section.
A stent comprising: a stent skeleton; and a deposition layer containing a plurality of layers deposited on the stent skeleton; each layer of the deposition layer comprising crystalline cilostazol, at least one of the plurality of layers comprising a bioabsorbable polymer, wherein the deposition layer has at least a first layer and a second layer; the content of cilostazol in the first layer, which is closer to the stent, is higher than the content of cilostazol in the second layer, which is more distant from the stent; and both layers comprise a bioabsorbable polymer, wherein the bioabsorbable polymer comprises not less than 90% by mass of polylactic acid, and wherein elution of not more than 5% by mass of the crystalline cilostazol occurs by 24 hours after the stent is brought into contact in vitro at 37°C with an elution medium of a phosphate-buffered sodium chloride solution containing 0.25% by mass of sodium lauryl sulfate. a stent skeleton; and a deposition layer containing a plurality of layers deposited on the stent skeleton; each layer of the deposition layer comprising crystalline cilostazol, at least one of the plurality of layers comprising a bioabsorbable polymer, wherein the deposition layer has at least a first layer and a second layer; the content of cilostazol in the first layer, which is closer to the stent, is higher than the content of cilostazol in the second layer, which is more distant from the stent; and both layers comprise a bioabsorbable polymer, wherein the bioabsorbable polymer comprises not less than 90% by mass of polylactic acid, and
Method for preparing a carboxylic acid, comprising the steps of - providing a magnesium carboxylate solution, wherein the carboxylic acid corresponding with the carboxylate has a solubility in water at 20 °C of 80 g/100 g water or less; - acidifying the magnesium carboxylate solution with hydrogen chloride (HCl), thereby obtaining a solution comprising carboxylic acid and magnesium chloride (MgCl 2); - optionally a concentration step, wherein the solution comprising carboxylic acid and MgCl 2 is concentrated; - precipitating the carboxylic acid from the solution comprising the carboxylic acid and MgCl 2, thereby obtaining a carboxylic acid precipitate and a MgCl 2 solution. - providing a magnesium carboxylate solution, wherein the carboxylic acid corresponding with the carboxylate has a solubility in water at 20 °C of 80 g/100 g water or less; - acidifying the magnesium carboxylate solution with hydrogen chloride (HCl), thereby obtaining a solution comprising carboxylic acid and magnesium chloride (MgCl 2); - optionally a concentration step, wherein the solution comprising carboxylic acid and MgCl 2 is concentrated; - precipitating the carboxylic acid from the solution comprising the carboxylic acid and MgCl 2, thereby obtaining a carboxylic acid precipitate and a MgCl 2 solution.