mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for implementing a software component ecosystem by performing the following acts: accepting one or more signals from a user input device to define an identifying name of a developer entity; accepting one or more signals from a user input device to define a secure verification mechanism usable to verify that the developer entity is authorized to register the identifying name; using the verification mechanism to verify that the developer entity is authorized to register the identifying name and, in the affirmative, registering the developer entity by recording a catalog entry as an entry in a distributed blockchain ledger, the entry including a developer entity name in association with the secure verification mechanism; after recording the catalog entry, allocating one or more namespaces to the developer entity, wherein the allocating is selectively restricted until the registration of the developer entity is several blocks deep in the blockchain; performing a transaction in association with the catalog entry to transfer a software component; using the catalog entry to verify the transaction. accepting one or more signals from a user input device to define an identifying name of a developer entity; accepting one or more signals from a user input device to define a secure verification mechanism usable to verify that the developer entity is authorized to register the identifying name; using the verification mechanism to verify that the developer entity is authorized to register the identifying name and, in the affirmative, registering the developer entity by recording a catalog entry as an entry in a distributed blockchain ledger, the entry including a developer entity name in association with the secure verification mechanism; after recording the catalog entry, allocating one or more namespaces to the developer entity, wherein the allocating is selectively restricted until the registration of the developer entity is several blocks deep in the blockchain; performing a transaction in association with the catalog entry to transfer a software component; using the catalog entry to verify the transaction.
In an identification medium comprising, in order, seen from a side reading is performed: a cholesteric liquid crystal layer in which a hologram is processed and circularly polarized light of primary rotating direction is selectively reflected; and a code-forming layer in which an objective code that is to be read is formed, wherein a hologram image inhibiting reading of information of the code while an optical reading device reads the code with it at the same time, is formed by the hologram processing, characterized in that the identification medium comprises an optical function layer in which circularly polarized light of a secondary rotating direction opposite to the primary rotating direction is selectively penetrated toward the cholesteric liquid crystal layer in the case in which natural light enters from the opposite side to the cholesteric liquid crystal layer side, whereby the optical function layer is arranged between the cholesteric liquid crystal layer and the code forming layer. a cholesteric liquid crystal layer in which a hologram is processed and circularly polarized light of primary rotating direction is selectively reflected; and a code-forming layer in which an objective code that is to be read is formed,
A flame-retardant resin composition, comprising: a thermoplastic resin; at least one phosphinate salt selected from phosphinate salts represented by the following general formula, diphosphinate salts represented by the following general formula, and condensates thereof; and a basic compound, wherein the flame-retardant resin composition comprises from 0.01 to 10 parts by mass of the component based on 100 parts by mass of the component: wherein R 1 and R 2 may be the same or different from each other, and represent linear or branched C 1 to C 6 -alkyl and/or aryl or phenyl; R 3 represents linear or branched C 1 to C 10 -alkylene, C 6 to C 10 -arylene, C 6 to C 10 -alkylarylene or C 6 to C 10 -arylalkylene; M represents one or more selected from calcium (ion), magnesium (ion), aluminum (ion), zinc (ion), bismuth (ion), manganese (ion), sodium (ion), potassium (ion), and a protonated nitrogen base; m is 2 or 3, n is an integer of from 1 to 3, and x is 1 or 2, and wherein the basic compound is one or more selected from hydroxides and oxides of one or more selected from calcium, magnesium, and aluminum. a thermoplastic resin; at least one phosphinate salt selected from phosphinate salts represented by the following general formula, diphosphinate salts represented by the following general formula, and condensates thereof; and a basic compound, wherein the flame-retardant resin composition comprises from 0.01 to 10 parts by mass of the component based on 100 parts by mass of the component: wherein R 1 and R 2 may be the same or different from each other, and represent linear or branched C 1 to C 6 -alkyl and/or aryl or phenyl; R 3 represents linear or branched C 1 to C 10 -alkylene, C 6 to C 10 -arylene, C 6 to C 10 -alkylarylene or C 6 to C 10 -arylalkylene; M represents one or more selected from calcium (ion), magnesium (ion), aluminum (ion), zinc (ion), bismuth (ion), manganese (ion), sodium (ion), potassium (ion), and a protonated nitrogen base; m is 2 or 3, n is an integer of from 1 to 3, and x is 1 or 2, and wherein the basic compound is one or more selected from hydroxides and oxides of one or more selected from calcium, magnesium, and aluminum.
A shower door frame, comprising a track extending in a horizontal direction and a side frame arranged perpendicularly to the track; a fixing part is fixed at a tail end of the track, a positioning block is arranged on an outer side of the fixing part, a retaining block is arranged at a top end of the positioning block, and the positioning block is embedded into the side frame; and a locking assembly is arranged on the side frame, the locking assembly comprises a base fixed on the side frame and a tensioning part hinged with the base, the tensioning part is provided with a locking groove, and the locking groove is buckled with the retaining block; characterized in that the track is provided thereon with a groove, and a fixing buckle is fixed into the groove; and wherein a stopping shoulder is arranged at a tail end of the tensioning part, and the stopping shoulder extends into the fixing buckle. a track extending in a horizontal direction and a side frame arranged perpendicularly to the track; a fixing part is fixed at a tail end of the track, a positioning block is arranged on an outer side of the fixing part, a retaining block is arranged at a top end of the positioning block, and the positioning block is embedded into the side frame; and a locking assembly is arranged on the side frame, the locking assembly comprises a base fixed on the side frame and a tensioning part hinged with the base, the tensioning part is provided with a locking groove, and the locking groove is buckled with the retaining block; characterized in that the track is provided thereon with a groove, and a fixing buckle is fixed into the groove; and wherein a stopping shoulder is arranged at a tail end of the tensioning part, and the stopping shoulder extends into the fixing buckle.
A torque transmitting coupling assembly for a wind turbine configured to rotatably couple a first coupling part to a second coupling part, wherein the first coupling part and the second coupling part are configured to rotate about a longitudinal axis of the torque transmitting coupling assembly and the torque transmitting coupling assembly comprises a torque transmitting ring, wherein a first coupling surface of the first coupling part abuts against a third coupling surface of the torque transmitting ring, wherein a second coupling surface of the second coupling part abuts against a fourth coupling surface of the torque transmitting ring, wherein a torque is transferred in a torque transmitting region of the torque transmitting coupling assembly from the first coupling surface of the first coupling part to the third coupling surface of the torque transmitting ring and from the fourth coupling surface of the torque transmitting ring to the second coupling surface of the second coupling part, characterized in that a compression ring is configured to press the torque transmitting ring against the first coupling part and/or the second coupling part, wherein the torque transmitting ring and the compression ring are located in the torque transmitting region. wherein the first coupling part and the second coupling part are configured to rotate about a longitudinal axis of the torque transmitting coupling assembly and the torque transmitting coupling assembly comprises a torque transmitting ring, wherein a first coupling surface of the first coupling part abuts against a third coupling surface of the torque transmitting ring, wherein a second coupling surface of the second coupling part abuts against a fourth coupling surface of the torque transmitting ring, wherein a torque is transferred in a torque transmitting region of the torque transmitting coupling assembly from the first coupling surface of the first coupling part to the third coupling surface of the torque transmitting ring and from the fourth coupling surface of the torque transmitting ring to the second coupling surface of the second coupling part, characterized in that a compression ring is configured to press the torque transmitting ring against the first coupling part and/or the second coupling part, wherein the torque transmitting ring and the compression ring are located in the torque transmitting region.
A crystalline polymorph Form 3 of 2-[4-(methylsulfonyl)-2-nitrobenzoyl]-1,3-cyclohexanedione which exhibits: (a) an X-ray powder diffraction pattern having a characteristic peak expressed in 2θ (± 0.20°2θ) at 8.0, wherein said peak is characterized by having the highest intensity. (a) an X-ray powder diffraction pattern having a characteristic peak expressed in 2θ (± 0.20°2θ) at 8.0, wherein said peak is characterized by having the highest intensity.
A liner assembly for insertion into a pipe, said liner assembly comprising: an extender tube; a connector portion; and a liner tube configured to be impregnated with a hardenable fluid; a first end of said extender tube being in substantially fluid tight communication with a first end of said connector portion; a second end of said connector portion forming a substantially fluid tight, detachable connection with a first end of said liner tube to form a first connection; said extender tube, connector portion and liner tube forming a continuous tubular construction which is capable of eversion; characterized in that the liner assembly comprises a sealing member arranged to inhibit passage of said fluid from the liner tube to the extender tube or the connector portion when the liner assembly is in a lay-flat configuration prior to being everted. an extender tube; a connector portion; and a liner tube configured to be impregnated with a hardenable fluid; a first end of said extender tube being in substantially fluid tight communication with a first end of said connector portion; a second end of said connector portion forming a substantially fluid tight, detachable connection with a first end of said liner tube to form a first connection; said extender tube, connector portion and liner tube forming a continuous tubular construction which is capable of eversion; characterized in that the liner assembly comprises a sealing member arranged to inhibit passage of said fluid from the liner tube to the extender tube or the connector portion when the liner assembly is in a lay-flat configuration prior to being everted.
An impact fastening tool (2; 202; 302; 402; 502), comprising: a motor; a hammer configured to be rotationally driven by the motor; an anvil configured to be hit in a rotational direction by the hammer; a signal obtainer (24, 28; 12, 210; 408; 508) configured to obtain a variable signal which varies in accordance with a hit to the anvil by the hammer; and characterised in that it also comprises a seating determiner configured to determine whether or not a fastener has been seated based on the variable signal obtained by the signal obtainer (24, 28; 12, 210; 408; 508), wherein the seating determiner is configured to determine whether or not the fastener has been seated based on a signal component of the variable signal obtained by the signal obtainer (24, 28; 12, 210; 408; 508), the signal component corresponding to a predetermined reference frequency, wherein the seating determiner includes a frequency converter configured to perform frequency conversion for the variable signal, and wherein the frequency converter includes: a reference signal generator configured to generate a reference signal having a frequency equal to or higher than the predetermined reference frequency; and a multiplier configured to multiply the variable signal by the reference signal. a motor; a hammer configured to be rotationally driven by the motor; an anvil configured to be hit in a rotational direction by the hammer; a signal obtainer (24, 28; 12, 210; 408; 508) configured to obtain a variable signal which varies in accordance with a hit to the anvil by the hammer; and characterised in that it also comprises a seating determiner configured to determine whether or not a fastener has been seated based on the variable signal obtained by the signal obtainer (24, 28; 12, 210; 408; 508), wherein the seating determiner is configured to determine whether or not the fastener has been seated based on a signal component of the variable signal obtained by the signal obtainer (24, 28; 12, 210; 408; 508), the signal component corresponding to a predetermined reference frequency, wherein the seating determiner includes a frequency converter configured to perform frequency conversion for the variable signal, and wherein the frequency converter includes: a reference signal generator configured to generate a reference signal having a frequency equal to or higher than the predetermined reference frequency; and a multiplier configured to multiply the variable signal by the reference signal. a reference signal generator configured to generate a reference signal having a frequency equal to or higher than the predetermined reference frequency; and a multiplier configured to multiply the variable signal by the reference signal.
Pressurised-fluid tap for multiple fillings, in particular for a pressurised-gas tank, comprising a body having a base intended to be fixed in the region of an orifice of a pressurised tank, the body defining an internal circuit for drawing-off/filling fluid extending between an upstream end, intended to be connected to the storage volume of a tank, and a downstream end, intended to be connected to a user member receiving or dispensing gas, the tap comprising, arranged in series in the circuit, a residual-pressure valve and an isolation valve, the tap comprising a member for actuating the isolation valve in order to selectively control the obstruction or not of the circuit, the actuation member being able to move between a first so-called "closure" position in which the isolation valve obstructs the circuit and a second so-called "drawing-off" position in which the isolation valve does not obstruct the circuit, the residual-pressure valve comprising a shutter which is able to move relative to a seat, the shutter being biased towards the seat by a return member, characterised in that the isolation valve is distinct from the residual-pressure valve and comprises a shutter distinct from that of the residual-pressure valve which is able to move relative to a seat distinct from that of the residual-pressure valve and which is biased towards its seat by a return member distinct from that of the residual-pressure valve, the residual-pressure valve being situated upstream of the isolation valve, and in that the actuation member can be moved into a third so-called "filling" position in which the actuation member forces the isolation valve not to obstruct the circuit and in which the residual-pressure valve is moved into an opening position not obstructing the circuit, whatever the pressure differential on either side of the residual-pressure valve.
Catalyst composition for the polymerization of olefins, characterized in that: a) the catalyst is produced using a metal-containing compound having the formula: MeR n X 3-n in which X is a halogen, Me is a metal of group III of Mendelejev's Periodic Table of Elements, R is a hydrocarbon moiety comprising > 2 carbon atoms, and n is 1≤n<3, or a dimer of a compound of formula; and b) the average particle size of the catalyst as reflected by D 50 (measured according to ISO13320) is between 0.5 and 4.5 μm; wherein the catalyst composition comprises the product obtained by combining: a) a hydrocarbon solution comprising: • a magnesium-containing compound selected from an organic oxygen-containing magnesium compound and a halogen-containing magnesium compound; and • an organic oxygen-containing titanium compound; and b) a solution comprising a mixture of: • a metal-containing compound having the formula: MeR n X 3-n in which X is a halogen, Me is a metal of group III of Mendelejev's Periodic Table of Elements, R is a hydrocarbon moiety comprising > 2 carbon atoms, and n is 1≤n<3, or a dimer of a compound of formula; and • a silicon-containing compound of formula R' m SiCl 4-m in which 0≤m≤2 and R' is a hydrocarbon moiety comprising at least one carbon atom; in which the combination of solutions a) and b) results in a suspension of solid particles. a) the catalyst is produced using a metal-containing compound having the formula: MeR n X 3-n in which X is a halogen, Me is a metal of group III of Mendelejev's Periodic Table of Elements, R is a hydrocarbon moiety comprising > 2 carbon atoms, and n is 1≤n<3, or a dimer of a compound of formula; and b) the average particle size of the catalyst as reflected by D 50 (measured according to ISO13320) is between 0.5 and 4.5 μm; a) a hydrocarbon solution comprising: • a magnesium-containing compound selected from an organic oxygen-containing magnesium compound and a halogen-containing magnesium compound; and • an organic oxygen-containing titanium compound; and • a magnesium-containing compound selected from an organic oxygen-containing magnesium compound and a halogen-containing magnesium compound; and • an organic oxygen-containing titanium compound; and b) a solution comprising a mixture of: • a metal-containing compound having the formula: MeR n X 3-n in which X is a halogen, Me is a metal of group III of Mendelejev's Periodic Table of Elements, R is a hydrocarbon moiety comprising > 2 carbon atoms, and n is 1≤n<3, or a dimer of a compound of formula; and • a silicon-containing compound of formula R' m SiCl 4-m in which 0≤m≤2 and R' is a hydrocarbon moiety comprising at least one carbon atom; • a metal-containing compound having the formula: MeR n X 3-n in which X is a halogen, Me is a metal of group III of Mendelejev's Periodic Table of Elements, R is a hydrocarbon moiety comprising > 2 carbon atoms, and n is 1≤n<3, or a dimer of a compound of formula; and • a silicon-containing compound of formula R' m SiCl 4-m in which 0≤m≤2 and R' is a hydrocarbon moiety comprising at least one carbon atom;
A Brassica plant, in particular a Brassica oleracea plant, carrying a genetic determinant that comprises QTL1 and/or QTL2 and/or QTL3, which confers resistance against Plasmodiophora brassicae, and which genetic determinant is present in plants that are grown from seeds which were deposited with the NCIMB under NCIMB accession number 41851, wherein the said genetic determinant as present in plants that are grown from the seeds of NCIMB deposit 41851 comprises: - QTL1, located on chromosome 3 between marker BO00365 (SEQ ID No. 3) and marker BO00403 (SEQ ID No. 4) and linked to marker BO00812 (SEQ ID NO. 1); or - QTL1, located on chromosome 3, between marker BO01881 (SEQ ID No.9) and marker BO02440 (SEQ ID No. 10) and linked to marker BO02081 (SEQ ID No. 7); or - QTL1, located on chromosome 3, between marker BO02157 (SEQ ID No.14) and marker BO02306 (SEQ ID No. 15) and linked to marker BO02480 (SEQ ID No. 13); and/or - QTL2, located on chromosome 8 between marker BO00829 (SEQ ID No. 5) and marker BO1007 (SEQ ID No. 6) and linked to marker BO01026 (SEQ ID No. 2); and/or - QTL3, located on chromosome 4 between marker BO02418 (SEQ ID No. 11) and BO01995, (SEQ ID N o. 12) and linked to marker BO02117 (SEQ ID No. 8). - QTL1, located on chromosome 3 between marker BO00365 (SEQ ID No. 3) and marker BO00403 (SEQ ID No. 4) and linked to marker BO00812 (SEQ ID NO. 1); or - QTL1, located on chromosome 3, between marker BO01881 (SEQ ID No.9) and marker BO02440 (SEQ ID No. 10) and linked to marker BO02081 (SEQ ID No. 7); or - QTL1, located on chromosome 3, between marker BO02157 (SEQ ID No.14) and marker BO02306 (SEQ ID No. 15) and linked to marker BO02480 (SEQ ID No. 13); and/or - QTL2, located on chromosome 8 between marker BO00829 (SEQ ID No. 5) and marker BO1007 (SEQ ID No. 6) and linked to marker BO01026 (SEQ ID No. 2); and/or - QTL3, located on chromosome 4 between marker BO02418 (SEQ ID No. 11) and BO01995, (SEQ ID N o. 12) and linked to marker BO02117 (SEQ ID No. 8).
A light emitting device comprising: a support member having a body, first and second pads (115, 117) spaced apart from each other on the body and a hole (11, 13) in the body; a light emitting chip having a light emitting structure and third and fourth pads (145, 147) under the light emitting structure; and an adhesive member (150, 160) between the support member and the light emitting chip, wherein the third pad is electrically connected to the first pad, the fourth pad is electrically connected to the second pad, the light emitting structure includes a first conductive semiconductor layer, an active layer and a second conductive semiconductor layer, and the adhesive member (150, 160) includes a protrusion (151, 153) protruding into the hole (11, 13), wherein the hole (11, 13) includes a plurality of holes (11, 13), a first hole of the plurality of holes vertically overlaps with the third pad of the light emitting chip and a second hole vertically overlaps with the fourth pad of the light emitting chip, wherein the protrusion (151, 153) is disposed in each of the first and second holes (11, 13) and has a height smaller than a depth of the first and second holes (11, 13), wherein the first and second holes (11, 13) are an open region which is formed by vertically passing through an interior of the support member, wherein the first and second holes (11, 13) have widths gradually narrower toward a center of the body than top and bottom surfaces of the body. a support member having a body, first and second pads (115, 117) spaced apart from each other on the body and a hole (11, 13) in the body; a light emitting chip having a light emitting structure and third and fourth pads (145, 147) under the light emitting structure; and an adhesive member (150, 160) between the support member and the light emitting chip, wherein the third pad is electrically connected to the first pad, the fourth pad is electrically connected to the second pad, the light emitting structure includes a first conductive semiconductor layer, an active layer and a second conductive semiconductor layer, and the adhesive member (150, 160) includes a protrusion (151, 153) protruding into the hole (11, 13), wherein the hole (11, 13) includes a plurality of holes (11, 13), a first hole of the plurality of holes vertically overlaps with the third pad of the light emitting chip and a second hole vertically overlaps with the fourth pad of the light emitting chip, wherein the protrusion (151, 153) is disposed in each of the first and second holes (11, 13) and has a height smaller than a depth of the first and second holes (11, 13), wherein the first and second holes (11, 13) are an open region which is formed by vertically passing through an interior of the support member, wherein the first and second holes (11, 13) have widths gradually narrower toward a center of the body than top and bottom surfaces of the body.