mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a solid nanocomposite material comprising nanoparticles of a metal coordination polymer with CN ligands, said nanoparticles satisfying the formula [Alk + x]Mn + [M' m] z- wherein Alk is an alkali metal such as Li, Na or K, x is 1 or 2, M is a transition metal, n is 2 or 3, M' is a transition metal, m is 6 or 8, z is 3 or 4; said cations M n+ of the coordination polymer being bound through an organometallic or coordination bond to an organic group R2 of an organic graft, and said organic graft being further chemically attached, preferably through a covalent bond, to at least one surface of a solid support by reaction of a group R1 of said graft with said surface; a method wherein the following successive steps are carried out: a) a solid support is provided; b) the chemical attachment of the organic graft to the surface of the solid support is achieved; c) the solid support to the surface of which is attached the organic graft is put into contact with a solution containing the M n+ ion and then the thereby obtained grafted solid support is washed one or several times and is optionally dried; d) the grafted solid support obtained at the end of step c) is put into contact with a solution containing a complex or salt of [M' m] z- for example a salt of formula [Alk z] [M' m], and a salt of an alkali metal Alk, and then the thereby obtained solid support is washed once or several times, and is optionally dried; e) steps c) to d) are optionally repeated, preferably from 1 to 10 times, more preferably from 1 to 4 times. f) If the steps c) and d) are the ultimate steps of the method, then during step c) the obtained grafted solid support is washed once or several times and is dried, and during step d), the thereby obtained solid support is washed one or several times and dried. a) a solid support is provided; b) the chemical attachment of the organic graft to the surface of the solid support is achieved; c) the solid support to the surface of which is attached the organic graft is put into contact with a solution containing the M n+ ion and then the thereby obtained grafted solid support is washed one or several times and is optionally dried; d) the grafted solid support obtained at the end of step c) is put into contact with a solution containing a complex or salt of [M' m] z- for example a salt of formula [Alk z] [M' m], and a salt of an alkali metal Alk, and then the thereby obtained solid support is washed once or several times, and is optionally dried; e) steps c) to d) are optionally repeated, preferably from 1 to 10 times, more preferably from 1 to 4 times. f) If the steps c) and d) are the ultimate steps of the method, then during step c) the obtained grafted solid support is washed once or several times and is dried, and during step d), the thereby obtained solid support is washed one or several times and dried.
A switching device for bypassing a daisy-chained network device from a wired network, the device comprising: a first network connector configured to connect to a first wired network port of the daisy-chained network device; a second network connector configured to connect to a second wired network port of the daisy-chained network device; a normally-closed switch having a first terminal, a second terminal and a pole, the first terminal electrically connected to the first network connector, the second terminal electrically connected to the second network connector, and the pole, when energized, opening the normally-closed switch such that the first and second terminals are electrically isolated from one another; and characterized in comprising a resettable timer having an input port and an output port, the input port configured to receive reset signals, the output port electrically coupled to the pole of the normally-closed switch, the resettable timer configured to generate an output signal on the output port that energizes the pole during a predetermined time period following every reset signal received on said input port and de-energizes the pole after the predetermined time period following a last of the received reset signals. a first network connector configured to connect to a first wired network port of the daisy-chained network device; a second network connector configured to connect to a second wired network port of the daisy-chained network device; a normally-closed switch having a first terminal, a second terminal and a pole, the first terminal electrically connected to the first network connector, the second terminal electrically connected to the second network connector, and the pole, when energized, opening the normally-closed switch such that the first and second terminals are electrically isolated from one another; and characterized in comprising a resettable timer having an input port and an output port, the input port configured to receive reset signals, the output port electrically coupled to the pole of the normally-closed switch, the resettable timer configured to generate an output signal on the output port that energizes the pole during a predetermined time period following every reset signal received on said input port and de-energizes the pole after the predetermined time period following a last of the received reset signals.
A hair accessory, comprising: a curved base configured to be positioned against a head of a person, the curved base having a concave back surface configured to face the head of the person, the curved base further having a convex front surface configured to face away from the head of the person; a curved hollow tube coupled to the base, the curved hollow tube configured to provide structural support to a portion of hair of the person gathered around the curved hollow tube, the curved hollow tube having a first end that is coupled directly to the curved base and a second end distally located from the curved base, wherein the curved hollow tube curves at least partially in an upward direction along a first portion of a length of the curved hollow tube and further curves at least partially in a downward direction along a second portion of the length of the curved hollow tube; and wherein the curved hollow tube includes a plurality of ridges positioned along the length of the curved hollow tube, wherein each of the plurality of ridges extends along a perimeter of the curved hollow tube. a curved base configured to be positioned against a head of a person, the curved base having a concave back surface configured to face the head of the person, the curved base further having a convex front surface configured to face away from the head of the person; a curved hollow tube coupled to the base, the curved hollow tube configured to provide structural support to a portion of hair of the person gathered around the curved hollow tube, the curved hollow tube having a first end that is coupled directly to the curved base and a second end distally located from the curved base, wherein the curved hollow tube curves at least partially in an upward direction along a first portion of a length of the curved hollow tube and further curves at least partially in a downward direction along a second portion of the length of the curved hollow tube; and wherein the curved hollow tube includes a plurality of ridges positioned along the length of the curved hollow tube, wherein each of the plurality of ridges extends along a perimeter of the curved hollow tube.
Cooled grate block as part of a grate for a plant for the thermal treatment of waste, in which the grate blocks are arranged one above the other in a staircase-like manner and are designed in such a way as to shift and convey the combustible material during incineration by means of pushing movements carried out relative to one another, comprising a block body in the form of a casting with an upper wall which forms an outer support surface for the waste to be treated which extends at least partially parallel to a longitudinal axis of the block body, a flat cavity arranged directly below the bearing surface for receiving a cooling fluid, which is bounded at the top by the upper wall, at the front by a front wall, at the bottom by a base, at the rear by a rear wall and laterally by side walls, wherein the base is formed at least partially by a base plate, a fluid supply line and a fluid drain line, which are connected to the cavity, at least one deflection element arranged in the cavity for directing a cooling fluid in the cavity from the fluid supply line to the fluid discharge line, and a distribution element arranged in an end region of the cavity for distributing the fluid fed into the cavity through the fluid supply line, characterised in that the fluid supply line and the fluid discharge line are connected to the flat cavity in the region of the front wall. a block body in the form of a casting with an upper wall which forms an outer support surface for the waste to be treated which extends at least partially parallel to a longitudinal axis of the block body, a flat cavity arranged directly below the bearing surface for receiving a cooling fluid, which is bounded at the top by the upper wall, at the front by a front wall, at the bottom by a base, at the rear by a rear wall and laterally by side walls, wherein the base is formed at least partially by a base plate, a fluid supply line and a fluid drain line, which are connected to the cavity, at least one deflection element arranged in the cavity for directing a cooling fluid in the cavity from the fluid supply line to the fluid discharge line, and a distribution element arranged in an end region of the cavity for distributing the fluid fed into the cavity through the fluid supply line, characterised in that the fluid supply line and the fluid discharge line are connected to the flat cavity in the region of the front wall.
Robot effector for installing mechanical fasteners, such as rivets, screws, bolts and similar, comprising a frame supporting a gripping device for mechanical fasteners, such as rivets, screws, bolts and similar; the gripping device comprising: • a housing; • a holder arranged rotatable inside of the housing; and • a pair of jaws (20, 21) arranged on said holder, which pair is adapted to grip a mechanical fastener therebetween, and which jaws (20, 21) are shaped to allow a self-centering of a gripped mechanical fastener, characterized in that • each jaw (20, 21) is mounted pivotably on a free end (32, 33) of a lever arm (30, 31) such that upon movement of the lever arm the respective jaw is guided in a linear and straight direction, and wherein the lever arms (30, 31) are supported pivotably by the holder, • the effector further comprises a feeder mechanism supported on the frame for feeding mechanical fasteners to the gripping device, and • the gripping device is arranged rotatable on the frame to move between a first position, where the gripping device grips a mechanical fastener from the feeder mechanism and a second position, where the gripping device provides a gripped mechanical fastener to an installation mechanism. • a housing; • a holder arranged rotatable inside of the housing; and • a pair of jaws (20, 21) arranged on said holder, which pair is adapted to grip a mechanical fastener therebetween, and which jaws (20, 21) are shaped to allow a self-centering of a gripped mechanical fastener, characterized in that • each jaw (20, 21) is mounted pivotably on a free end (32, 33) of a lever arm (30, 31) such that upon movement of the lever arm the respective jaw is guided in a linear and straight direction, and wherein the lever arms (30, 31) are supported pivotably by the holder, • the effector further comprises a feeder mechanism supported on the frame for feeding mechanical fasteners to the gripping device, and • the gripping device is arranged rotatable on the frame to move between a first position, where the gripping device grips a mechanical fastener from the feeder mechanism and a second position, where the gripping device provides a gripped mechanical fastener to an installation mechanism.
A sponge-formable silicone rubber composition comprising: 100 parts by mass of a polyorganosiloxane having at least two silicon-bonded alkenyl groups per molecule; a polyorganosiloxane having at least two silicon-bonded hydrogen atoms per molecule, in an amount such that an amount of silicon-bonded hydrogen atoms in component is from 0.4 to 20 moles per 1 mole of alkenyl groups in component; from 20 to 500 parts by mass of water; cellulose nanofibers having a number-average fiber diameter of 2 to 150 nm, in an amount of from 0.01 to 15 parts by mass per 100 parts by mass of component; from 0.1 to 15 parts by mass of an emulsifier; and a hydrosilylation reaction catalyst, in an amount to accelerate a hydrosilylation reaction of the composition. 100 parts by mass of a polyorganosiloxane having at least two silicon-bonded alkenyl groups per molecule; a polyorganosiloxane having at least two silicon-bonded hydrogen atoms per molecule, in an amount such that an amount of silicon-bonded hydrogen atoms in component is from 0.4 to 20 moles per 1 mole of alkenyl groups in component; from 20 to 500 parts by mass of water; cellulose nanofibers having a number-average fiber diameter of 2 to 150 nm, in an amount of from 0.01 to 15 parts by mass per 100 parts by mass of component; from 0.1 to 15 parts by mass of an emulsifier; and a hydrosilylation reaction catalyst, in an amount to accelerate a hydrosilylation reaction of the composition.
A method for intra-user equipment device, UE, coexistence between non-stand-alone mode and stand-alone mode, comprising: connecting (1302, 1502) to a first radio access network, RAN, operating according to a first radio access technology, RAT, via a first radio (329, 330, 510, 520) of one or more radios (329, 330, 510, 520) of the UE; connecting (1304, 1504) to a second RAN operating according to a second RAT via a second radio (329, 330, 510, 520) of the one or more radios (329, 330, 510, 520) of the UE; providing, to the first RAN, configuration information during a radio resource control, RRC, connection procedure, wherein the configuration information indicates a dual connectivity status of the UE, wherein the dual connectivity status includes configurations associated with the second RAN, and wherein the configurations associated with the second RAN include whether the UE is configured in a stand-alone mode for communications with the second RAN; and receiving (1308, 1506), from the first RAN, a dual connectivity configuration, wherein the dual connectivity configuration is based on the dual connectivity status of the UE. connecting (1302, 1502) to a first radio access network, RAN, operating according to a first radio access technology, RAT, via a first radio (329, 330, 510, 520) of one or more radios (329, 330, 510, 520) of the UE; connecting (1304, 1504) to a second RAN operating according to a second RAT via a second radio (329, 330, 510, 520) of the one or more radios (329, 330, 510, 520) of the UE; providing, to the first RAN, configuration information during a radio resource control, RRC, connection procedure, wherein the configuration information indicates a dual connectivity status of the UE, wherein the dual connectivity status includes configurations associated with the second RAN, and wherein the configurations associated with the second RAN include whether the UE is configured in a stand-alone mode for communications with the second RAN; and receiving (1308, 1506), from the first RAN, a dual connectivity configuration, wherein the dual connectivity configuration is based on the dual connectivity status of the UE.
A signal processing apparatus, comprising: acquisition means configured to acquire input data S(x); means configured to generate noise cut data I(x) by deducting a predetermined noise value from values of respective signals of the input data S(x); and stochastic resonance processing means configured to subject the noise cut data I(x) to a predetermined stochastic resonance processing to thereby generate stochastic resonance data J(x), characterized in that the signal processing apparatus further comprises: extraction means configured to extract a detection target signal based on the stochastic resonance data J(x), wherein the stochastic resonance processing means is configured to perform the predetermined stochastic resonance processing to calculate the stochastic resonance data J(x) from the noise cut data I(x) using one of the following Formula 1 and Formula 2, J x = { 1 T < I x 0 I x < T − K 1 − 1 1 + exp − α T − I x K − 0.5 T − K ≦ I x ≦ T J x = { 1 T < I x 0 I x < T − K 1 − T − I x / K T − K ≦ I x ≦ T, where T is a threshold value to quantize the input data S(x), and K is a noise strength. acquisition means configured to acquire input data S(x); means configured to generate noise cut data I(x) by deducting a predetermined noise value from values of respective signals of the input data S(x); and stochastic resonance processing means configured to subject the noise cut data I(x) to a predetermined stochastic resonance processing to thereby generate stochastic resonance data J(x), characterized in that the signal processing apparatus further comprises: extraction means configured to extract a detection target signal based on the stochastic resonance data J(x), wherein the stochastic resonance processing means is configured to perform the predetermined stochastic resonance processing to calculate the stochastic resonance data J(x) from the noise cut data I(x) using one of the following Formula 1 and Formula 2, J x = { 1 T < I x 0 I x < T − K 1 − 1 1 + exp − α T − I x K − 0.5 T − K ≦ I x ≦ T J x = { 1 T < I x 0 I x < T − K 1 − T − I x / K T − K ≦ I x ≦ T, where T is a threshold value to quantize the input data S(x), and K is a noise strength. extraction means configured to extract a detection target signal based on the stochastic resonance data J(x), wherein the stochastic resonance processing means is configured to perform the predetermined stochastic resonance processing to calculate the stochastic resonance data J(x) from the noise cut data I(x) using one of the following Formula 1 and Formula 2, J x = { 1 T < I x 0 I x < T − K 1 − 1 1 + exp − α T − I x K − 0.5 T − K ≦ I x ≦ T J x = { 1 T < I x 0 I x < T − K 1 − T − I x / K T − K ≦ I x ≦ T, where T is a threshold value to quantize the input data S(x), and K is a noise strength.
A method for detecting bladder cancer in a subject, comprising: detecting an increased amount of mRNA specific for a urinary bladder tumor marker ("UBTM") in the urine of said subject compared to the amount of said mRNA in the urine of subjects not suffering from malignant bladder cancer, characterized in that the UBTM is cell division cycle 2, G1 to S and G2 to M. detecting an increased amount of mRNA specific for a urinary bladder tumor marker ("UBTM") in the urine of said subject compared to the amount of said mRNA in the urine of subjects not suffering from malignant bladder cancer, characterized in that the UBTM is cell division cycle 2, G1 to S and G2 to M.
A flash memory apparatus, wherein the flash memory apparatus comprises a primary controller and a flash chip, and the flash chip comprises multiple blocks; and the primary controller is configured to: receive first target data; select a first block from the multiple blocks, wherein the first block is a blank block that includes a damaged page, wherein an effective capacity of the first block is less than a size of the first target data, the size of the first target data being equal to a standard capacity of a block; divide the first target data into first part of the first target data and second part of the first target data, wherein a size of the first part of the first target data is the effective capacity of the first block, and a size of the second part of the first target data is the size of the first target data minus the size of the first part of the first target data; determine a second block among the multiple blocks, wherein the second block is a block that has been written with data but is not filled with data; write the first part of the first target data into the first block; and write the second part of the first target data into the second block. receive first target data; select a first block from the multiple blocks, wherein the first block is a blank block that includes a damaged page, wherein an effective capacity of the first block is less than a size of the first target data, the size of the first target data being equal to a standard capacity of a block; divide the first target data into first part of the first target data and second part of the first target data, wherein a size of the first part of the first target data is the effective capacity of the first block, and a size of the second part of the first target data is the size of the first target data minus the size of the first part of the first target data; determine a second block among the multiple blocks, wherein the second block is a block that has been written with data but is not filled with data; write the first part of the first target data into the first block; and write the second part of the first target data into the second block.
A coffin in an environmentally friendly material with a special shape and fittings at the places where the coffin is to be lifted, wherein the coffin itself has vertical recesses directed inwards, which cover both the coffin box and the lid, characterised in that at each side of the coffin box bottom, a respective transverse lever or pipe has been placed, and wherein said pipes or levers are through-going to each and across each of a multitude of recesses on each respective side of said coffin box bottom.
A rolling bed for substantially cylindrical smoking articles, each of which comprises at least two coaxial, substantially cylindrical segments (B, C) and a connecting strip, the connecting strip extending tangentially from the segments (B, C) on which the strip is positioned with an end preferably glued to the segments (B, C); the rolling bed comprising a transporting surface adapted to face a rolling portion of a conveyor drum for said smoking articles and defining, with said conveyor drum, a rolling channel adapted to transversely carry the smoking articles along a rolling direction between an infeed station corresponding to an infeed portion of the transporting surface and an outfeed station corresponding to an outfeed portion of the transporting surface; said rolling bed comprising at least two independent rolling sectors positioned side by side along a direction transverse to the rolling direction; wherein the rolling bed is characterised in that each sector is made and defined as a separate element and wherein in that the rolling bed is made by assembling the sectors, the sectors being preferably replaceable and configured to receive at least one corresponding rod-shaped segment (B, C). the rolling bed comprising a transporting surface adapted to face a rolling portion of a conveyor drum for said smoking articles and defining, with said conveyor drum, a rolling channel adapted to transversely carry the smoking articles along a rolling direction between an infeed station corresponding to an infeed portion of the transporting surface and an outfeed station corresponding to an outfeed portion of the transporting surface; said rolling bed comprising at least two independent rolling sectors positioned side by side along a direction transverse to the rolling direction; wherein the rolling bed is characterised in that each sector is made and defined as a separate element and wherein in that the rolling bed is made by assembling the sectors, the sectors being preferably replaceable and configured to receive at least one corresponding rod-shaped segment (B, C).