mhurhangee/ep-ind-claims huggingface dataset:
A printable recording media comprising: a. a substrate; b. a pre-coat layer including more than 60 wt % of one or more inorganic pigments by total dry weight of said pre-coat layer; c. a top-coating layer including: i. more than 60 wt % of one or more inorganic pigments; ii. from 2 wt % to 25 wt % of binders; iii. from 0.01 to 5 wt % of a combination of natural and synthetic rheology modifiers, by total weight of said top-coating layer, wherein the ratio of the amount of natural rheology modifiers to the amount of synthetic rheology modifiers is from 90:10 to 50:50. a. a substrate; b. a pre-coat layer including more than 60 wt % of one or more inorganic pigments by total dry weight of said pre-coat layer; c. a top-coating layer including: i. more than 60 wt % of one or more inorganic pigments; ii. from 2 wt % to 25 wt % of binders; iii. from 0.01 to 5 wt % of a combination of natural and synthetic rheology modifiers, by total weight of said top-coating layer, wherein the ratio of the amount of natural rheology modifiers to the amount of synthetic rheology modifiers is from 90:10 to 50:50. i. more than 60 wt % of one or more inorganic pigments; ii. from 2 wt % to 25 wt % of binders; iii. from 0.01 to 5 wt % of a combination of natural and synthetic rheology modifiers, by total weight of said top-coating layer, wherein the ratio of the amount of natural rheology modifiers to the amount of synthetic rheology modifiers is from 90:10 to 50:50.
An organic light emitting display device, comprising: a substrate; light emitting devices disposed on the substrate; an encapsulation layer structure disposed on the light emitting devices, the encapsulation layer structure including a first inorganic encapsulation layer on the light emitting devices, an organic encapsulation layer disposed on the first inorganic encapsulation layer, and a second inorganic encapsulation layer covering upper and side surfaces of the organic encapsulation layer; at least one touch electrode, at least one routing line and at least one routing pad disposed on one of the first inorganic encapsulation layer and the organic encapsulation layer and covered by at least the second inorganic layer, the at least one routing pad connected to the at least one touch electrode by the least one routing line formed of the same material as the at least one routing pad, extending from the at least one routing pad and directly connected to the at least one touch electrode; at least one routing pad contact hole disposed in at least the second inorganic encapsulation layer and over the at least one routing pad; and at least one pad connection electrode disposed on the second inorganic encapsulation layer and covering upper and side surfaces thereof, the at least one pad connection electrode connected to the at least one routing pad through the at least one routing pad contact hole. a substrate; light emitting devices disposed on the substrate; an encapsulation layer structure disposed on the light emitting devices, the encapsulation layer structure including a first inorganic encapsulation layer on the light emitting devices, an organic encapsulation layer disposed on the first inorganic encapsulation layer, and a second inorganic encapsulation layer covering upper and side surfaces of the organic encapsulation layer; at least one touch electrode, at least one routing line and at least one routing pad disposed on one of the first inorganic encapsulation layer and the organic encapsulation layer and covered by at least the second inorganic layer, the at least one routing pad connected to the at least one touch electrode by the least one routing line formed of the same material as the at least one routing pad, extending from the at least one routing pad and directly connected to the at least one touch electrode; at least one routing pad contact hole disposed in at least the second inorganic encapsulation layer and over the at least one routing pad; and at least one pad connection electrode disposed on the second inorganic encapsulation layer and covering upper and side surfaces thereof, the at least one pad connection electrode connected to the at least one routing pad through the at least one routing pad contact hole.
A lifting machine comprising a chassis, a lifting arm mounted on said chassis and moveable at least pivotably between a high position and a low position, at least one sensor for measuring the inclination of the lifting arm in relation to the chassis, said chassis being a rolling chassis fitted with at least one front axle and one rear axle, the rear axle being mounted pivotably about an axis parallel to the longitudinal axis of the machine, at least one of the axles (5, 6) being fitted with a suspension assembly, characterized in that the pivoting rear axle is mounted permanently free to pivot, that is, there are no means blocking the pivotable link between the rear axle and the chassis, within an angular range delimited by two stops carried on said chassis, in that the front axle is coupled to the chassis by a pivot link with an axis parallel to the longitudinal axis of the machine, in that the suspension assembly is fitted to the front axle to damp the relative pivoting between the front axle and the chassis, in that said suspension assembly of the front axle comprises at least one hydraulic actuator arranged between the front axle and the chassis that links the front axle to the chassis, one or more shock absorbers, at least one of which is formed by a returnable energy accumulator, and at least one closable fluid link between the actuator and the shock absorber(s), in that said suspension assembly is an activatable/deactivatable suspension assembly, in that said suspension assembly is deactivated when the fluid link is in the closed state, in that said suspension assembly is deactivated at least when the angular value measured by the sensor for measuring the inclination of the lifting arm is greater than a predetermined threshold value, and in that the machine has at least one configuration in which the pivoting rear axle is mounted free to pivot and the suspension assembly fitted to the front axle is in the activated state to enable the front axle to be mounted to pivot freely.
Pressure-sensitive adhesive which comprises as base polymer at least one or more solid EPDM rubbers and also tackifier resins, the fraction of the tackifier resins being 30 to 130 phr (based on 100 parts by weight of all EPDM polymer components of the pressure-sensitive adhesive), characterized in that the adhesive is plasticizer-free.
Tank tube bracket for a tank, in particular a diesel or reactive-fluid tank, the bracket comprising a receptacle for receiving a tank tube, the receptacle extending along an axis, and a passage for passing fluid through the bracket wherein the passage is directed towards the axis at a distal end of the passage, characterized in that a tank tube is received in the receptacle, the tank tube extending in front of the distal end of the passage.
Swarf-free self-tapping screw with a shank at least a portion of which bears a screw thread and which has a pointed tip arranged at its one end and a head arranged at its opposite other end, and with a conically tapering portion extending from the tip towards the head and with a cylindrical portion arranged between the first conically tapering portion and the head, characterized by a first cambered portion which adjoins the first conically tapering portion in the direction towards the head and whose circumferential surface has a first radius of curvature in the axial direction, and a second cambered portion which is arranged between the first cambered portion and the cylindrical portion and whose circumferential surface has a second radius of curvature in the axial direction, the first radius of curvature being unequal to the second radius of curvature.
A method of detecting the presence of a lysosomal storage disease in a subject comprising the steps of: (a) contacting an obtained sample containing cells from said subject with a amphiphilic tracer compound that localizes to a lysosome in a cell; and (b) detecting said amphiphilic tracer compound by measuring fluorescence intensity, thereby determining whether there exists an excess above normal accumulation of lysosomes within said cells of the sample, said excess above normal accumulation of lysosomes being indicative of the lysosomal storage disease; wherein said amphiphilic tracer compound has the structure: (a) contacting an obtained sample containing cells from said subject with a amphiphilic tracer compound that localizes to a lysosome in a cell; and (b) detecting said amphiphilic tracer compound by measuring fluorescence intensity, thereby determining whether there exists an excess above normal accumulation of lysosomes within said cells of the sample, said excess above normal accumulation of lysosomes being indicative of the lysosomal storage disease;
Method of assembling an oxyburner using a refractory block having on one side an inlet face and on an opposite side an outlet face, the block defining: i. a feed passage into said block from said inlet face, said feed passage having an axis, and ii. a burner chamber having a narrow end opening and an opposite wide end opening in the outlet face, the burner chamber having a length Lt and comprising a frusto-conical section terminating in the wide end opening, the feed passage leading into the narrow end opening of the burner chamber, the burner chamber leading out of the block at its wide end opening, the method comprising the steps of mounting a fuel injector in the feed passage and mounting one or more oxidizer injectors in the feed passage, wherein the frusto-conical section has a cone axis substantially coinciding with the axis of the feed passage, and the fuel injector is mounted in the feed passage so as to extend into the burner chamber over a length Lf, whereby 0≤ Lf ≤ 0.35 x Lt, and the one or more oxidizer injectors are mounted in the feed passage so as to extend into the burner chamber over a length 0 ≤ Lo ≤ Lf, and the fuel injector and the one or more oxidizer injectors are mounted in the feed passage so that the fuel injector is surrounded by the one or more oxidizer injectors, and characterized in that: the frusto-conical section of the burner chamber has a cone angle α of 2° to 4°. i. a feed passage into said block from said inlet face, said feed passage having an axis, and ii. a burner chamber having a narrow end opening and an opposite wide end opening in the outlet face, the burner chamber having a length Lt and comprising a frusto-conical section terminating in the wide end opening, the feed passage leading into the narrow end opening of the burner chamber, the burner chamber leading out of the block at its wide end opening, the method comprising the steps of mounting a fuel injector in the feed passage and mounting one or more oxidizer injectors in the feed passage, wherein the frusto-conical section has a cone axis substantially coinciding with the axis of the feed passage, and the fuel injector is mounted in the feed passage so as to extend into the burner chamber over a length Lf, whereby 0≤ Lf ≤ 0.35 x Lt, and the one or more oxidizer injectors are mounted in the feed passage so as to extend into the burner chamber over a length 0 ≤ Lo ≤ Lf, and the fuel injector and the one or more oxidizer injectors are mounted in the feed passage so that the fuel injector is surrounded by the one or more oxidizer injectors, and characterized in that: the frusto-conical section of the burner chamber has a cone angle α of 2° to 4°.
A method of communication between two or more devices in a body sensor network having a hierarchical security managed by a processor or setup server which has: a generated L-level hierarchical relational deployment model (HRDM) including a tree structure of nodes representing respective devices in the BSN, wherein the nodes use body coupled communication for communication with each other; including: nodes groups into subgroups; and the subgroups assigned to levels in the HRDM a generated multi-level hierarchical key pre-distribution scheme (HKPS) and an assignment of unique keying material to each of a plurality of levels in the HKPS, a unique KPS being generated for each subgroup in the HRDM; and a security domain for each KPS linked to a its respective subgroup; the keying material being pre-distributed to the devices in respective levels of the HKPS; and the devices being deployed in the BSN; the method comprising: exchanging device identification information between said two or more devices in the BSN; identifying a deepest common node in the HRDM from which the two or more device's nodes depend; and establishing a communication link between the two or more devices using the keying material associated with the security domain of the deepest common node's subgroup. a generated L-level hierarchical relational deployment model (HRDM) including a tree structure of nodes representing respective devices in the BSN, wherein the nodes use body coupled communication for communication with each other; including: nodes groups into subgroups; and the subgroups assigned to levels in the HRDM nodes groups into subgroups; and the subgroups assigned to levels in the HRDM a generated multi-level hierarchical key pre-distribution scheme (HKPS) and an assignment of unique keying material to each of a plurality of levels in the HKPS, a unique KPS being generated for each subgroup in the HRDM; and a security domain for each KPS linked to a its respective subgroup; the keying material being pre-distributed to the devices in respective levels of the HKPS; and the devices being deployed in the BSN; exchanging device identification information between said two or more devices in the BSN; identifying a deepest common node in the HRDM from which the two or more device's nodes depend; and establishing a communication link between the two or more devices using the keying material associated with the security domain of the deepest common node's subgroup.
A method for an apparatus, the method comprising: providing for transmission of a request to a serving network entity for a plurality of serving network entity timeout values associated with a plurality of respective keep-alive timers implemented by the serving network entity for a Network Address Translation node, and/or a firewall, and/or a Packet Data Protocol context; receiving a response to the request, wherein the response comprises an indication of at least one serving network entity timeout value of the plurality of serving network entity timeout values; determining an expiration time of at least one of the plurality of respective keep-alive timers based at least in part on the at least one serving network entity timeout value; and providing for transmission of a keep-alive data packet prior to the determined expiration time. providing for transmission of a request to a serving network entity for a plurality of serving network entity timeout values associated with a plurality of respective keep-alive timers implemented by the serving network entity for a Network Address Translation node, and/or a firewall, and/or a Packet Data Protocol context; receiving a response to the request, wherein the response comprises an indication of at least one serving network entity timeout value of the plurality of serving network entity timeout values; determining an expiration time of at least one of the plurality of respective keep-alive timers based at least in part on the at least one serving network entity timeout value; and providing for transmission of a keep-alive data packet prior to the determined expiration time.
Multitubular heat exchanger for cooling a gas stream, the heat exchanger comprising: - an inlet chamber; - a bundle of tubes encased in a shell structure; and - an outlet chamber, wherein each tube comprises: - an inlet - a longitudinal middle part; and - an outlet; wherein the diameter d1 of the inlet of each tube is larger than the diameter d2 of the corresponding longitudinal middle part of said tube, wherein the inlets of the tubes of the heat exchanger are integrated in a tube sheet separating the inlet chamber from the volume within the shell structure, characterized in that an upper surface of the tube sheet between two tubes is three-dimensionally shaped so that the tube sheet forms an apex in the middle between two neighboring tubes. - an inlet chamber; - a bundle of tubes encased in a shell structure; and - an outlet chamber, wherein each tube comprises: - an inlet - a longitudinal middle part; and - an outlet; - an inlet - a longitudinal middle part; and - an outlet; wherein the diameter d1 of the inlet of each tube is larger than the diameter d2 of the corresponding longitudinal middle part of said tube, wherein the inlets of the tubes of the heat exchanger are integrated in a tube sheet separating the inlet chamber from the volume within the shell structure, characterized in that an upper surface of the tube sheet between two tubes is three-dimensionally shaped so that the tube sheet forms an apex in the middle between two neighboring tubes.
A method of driving a motor-driven mechanical system, comprising: responsive to a codeword identifying a destination position of the mechanical system or to an activation signal for moving to a destination position, generating a multi-stepped drive signal having an amplitude sufficient to move the mechanical system from a start position to the destination position, characterised in that the stepped drive signal comprises m steps, each step having a magnitude that is a portion of the amplitude proportional to a correspnding element of row (m-1) of Pascal's triangle; applying a first one of the drive signal steps to a motor of the mechanical system, applying each of one or more subsequent ones of the drive signal steps to the motor at a time t C offset from the preceding step by: t c ≅ 1 2 f R where f R is an expected resonant frequency of the mechanical system. responsive to a codeword identifying a destination position of the mechanical system or to an activation signal for moving to a destination position, generating a multi-stepped drive signal having an amplitude sufficient to move the mechanical system from a start position to the destination position, characterised in that the stepped drive signal comprises m steps, each step having a magnitude that is a portion of the amplitude proportional to a correspnding element of row (m-1) of Pascal's triangle; applying a first one of the drive signal steps to a motor of the mechanical system, applying each of one or more subsequent ones of the drive signal steps to the motor at a time t C offset from the preceding step by: t c ≅ 1 2 f R where f R is an expected resonant frequency of the mechanical system.
A method for modifying the rate of release of a biologically active compound encapsulated in a multivesicular liposome having a neutral lipid component comprising: forming an emulsion from a) a lipid component comprising an organic solvent, an amphipathic lipid, and a neutral lipid component comprising a mixture of a slow release neutral lipid and of a fast release neutral lipid in a molar ratio of from 1:0 to 0:1 of the slow release rate neutral lipid to the fast release rate neutral lipid, and b) an immiscible first aqueous component wherein at least one biologically active compound is incorporated into either the lipid component or the first aqueous component, or both, wherein the slow release neutral lipid is selected from a list consisting of triolein, tripalmitolein, trimyristolein, trilaurin, tricaprin, and mixtures thereof, and the fast release neutral lipid is selected from a list consisting of tricaprylin, tricaproin, and mixtures thereof, mixing the emulsion with a second aqueous component to form solvent spherules, removing the organic solvent from the solvent spherules to form multivesicular liposomes encapsulating the biologically active compound, and optionally, repeating steps - to obtain a multivesicular liposomes encapsulating the biologically active compound with the desired rate of release of the biologically active compound; wherein the molar ratio of the slow release neutral lipid to the fast release neutral lipid is decreased to increase the rate of release of the biologically active compound and wherein the melting point of the neutral lipid component is at or below the in vivo temperature at which the multivesicular liposomes are to be used as well as at or below the temperature at which the multivesicular liposomes are to be stored. forming an emulsion from a) a lipid component comprising an organic solvent, an amphipathic lipid, and a neutral lipid component comprising a mixture of a slow release neutral lipid and of a fast release neutral lipid in a molar ratio of from 1:0 to 0:1 of the slow release rate neutral lipid to the fast release rate neutral lipid, and b) an immiscible first aqueous component wherein at least one biologically active compound is incorporated into either the lipid component or the first aqueous component, or both, wherein the slow release neutral lipid is selected from a list consisting of triolein, tripalmitolein, trimyristolein, trilaurin, tricaprin, and mixtures thereof, and the fast release neutral lipid is selected from a list consisting of tricaprylin, tricaproin, and mixtures thereof, mixing the emulsion with a second aqueous component to form solvent spherules, removing the organic solvent from the solvent spherules to form multivesicular liposomes encapsulating the biologically active compound, and optionally, repeating steps - to obtain a multivesicular liposomes encapsulating the biologically active compound with the desired rate of release of the biologically active compound;
A method of wireless communication, comprising: determining, by a user equipment, UE, which uses a first antenna (712; 714) and a second antenna (714; 712) for communication with a first radio access technology, RAT, that the second antenna (712; 714) is to be used for a procedure associated with a second RAT at a first time; and characterized by reducing a UE rank index, RI, from an initial value to a reduced value for the communication with the first RAT at the first time based on the determination; transmitting a request to a network entity to reduce the UE RI to the reduced value before the first time; tuning away the second antenna (714; 712) from the first RAT to the second RAT to perform the procedure associated with the second RAT when the UE receives an acknowledgement in response to the transmission; and performing communication with the first RAT via the first antenna (712; 714) according to the reduced value of the UE RI when the UE receives the acknowledgement in response to the transmission. determining, by a user equipment, UE, which uses a first antenna (712; 714) and a second antenna (714; 712) for communication with a first radio access technology, RAT, that the second antenna (712; 714) is to be used for a procedure associated with a second RAT at a first time; and characterized by reducing a UE rank index, RI, from an initial value to a reduced value for the communication with the first RAT at the first time based on the determination; transmitting a request to a network entity to reduce the UE RI to the reduced value before the first time; tuning away the second antenna (714; 712) from the first RAT to the second RAT to perform the procedure associated with the second RAT when the UE receives an acknowledgement in response to the transmission; and performing communication with the first RAT via the first antenna (712; 714) according to the reduced value of the UE RI when the UE receives the acknowledgement in response to the transmission.