mhurhangee/ep-ind-claims huggingface dataset:
Vacuum cleaner comprising a housing being separated in at least a dust compartment and a motor compartment, the vacuum cleaner also comprises a motor located in the motor compartment and an air guide between the dust compartment and the motor, wherein the motor is suspended in the motor compartment by a suspension system comprising at least one spring, characterized in that the natural frequency of the suspension system including the motor is at least 3 times lower than the excitation frequency of the motor whilst the spring has a damping of less than 1%, the values for the suspension system being valid in all six degrees of freedom of displacement.
An active radar target for use with an FMCW radar comprising: a receive antenna for receiving a radar signal, an amplifier for amplifying the signal, and a transmit antenna for retransmitting the amplified signal, wherein the receive and transmit antennas operate with orthogonally polarised radar signals; and either a memory for storing an identity code or a means for receiving an identity code; characterised by a single sideband modulator configured to modulate the radar signal with at least the identity code prior to retransmission of the amplified signal. a receive antenna for receiving a radar signal, an amplifier for amplifying the signal, and a transmit antenna for retransmitting the amplified signal, wherein the receive and transmit antennas operate with orthogonally polarised radar signals; and either a memory for storing an identity code or a means for receiving an identity code; characterised by a single sideband modulator configured to modulate the radar signal with at least the identity code prior to retransmission of the amplified signal.
A lightweight fireproof cabinet for the protection of paper documents, data carriers and other valuable objects against heat influences in case of fire, comprising a corpus and a lockable door made of non-flammable material, wherein the corpus and the door have a double skin and comprise an inner wall within an outer wall made of non-flammable material, which inner wall is arranged at a distance from the outer wall, characterized in that the outer and inner walls of the corpus consist of individual plate-shaped structural elements which are detachably connected to each other by means of internal corner joint fittings and the cabinet can be decomposed.
A method for resource selection, the method comprising: performing, by a user equipment,, a first sensing operation to determine available resources in a resource pool; transmitting, by the UE, first data using a first set of available resources, the first set of available resources having been selected from the resource pool in accordance with the first sensing operation; performing, by the UE, concurrently with the first sensing operation and resource selection of the first set of available resources and independently from the first sensing operation, a second sensing operation to determine other available resources in the resource pool; transmitting, by the UE, second data using a second set of available resources, the second set of available resources having been selected from the resource pool in accordance with the second sensing operation, wherein the first set of available resources and the second set of available resources are independently selected, wherein the first data and the second data are the same data; and wherein the first set of available resources and the second set of available resources are used in the same resource interval. performing, by a user equipment,, a first sensing operation to determine available resources in a resource pool; transmitting, by the UE, first data using a first set of available resources, the first set of available resources having been selected from the resource pool in accordance with the first sensing operation; performing, by the UE, concurrently with the first sensing operation and resource selection of the first set of available resources and independently from the first sensing operation, a second sensing operation to determine other available resources in the resource pool; transmitting, by the UE, second data using a second set of available resources, the second set of available resources having been selected from the resource pool in accordance with the second sensing operation, wherein the first set of available resources and the second set of available resources are independently selected, wherein the first data and the second data are the same data; and wherein the first set of available resources and the second set of available resources are used in the same resource interval.
An indoor base station apparatus comprising: a location information obtaining part configured to obtain location information indicative of a location in which the indoor base station apparatus is located; and a location registration requesting part configured to transmit a location registration request of the indoor base station apparatus itself to a controlling apparatus as part of a registration process with the controlling apparatus; wherein, when the location information obtaining part obtains the location information, the location registration requesting part transmits the location registration request including the obtained location information. a location information obtaining part configured to obtain location information indicative of a location in which the indoor base station apparatus is located; and a location registration requesting part configured to transmit a location registration request of the indoor base station apparatus itself to a controlling apparatus as part of a registration process with the controlling apparatus; wherein, when the location information obtaining part obtains the location information, the location registration requesting part transmits the location registration request including the obtained location information.
A processing apparatus for forming a half member of a superconducting acceleration cavity member by processing a hollow object-to-be-cut, one end of which serves as a large-diameter portion and the other end of which serves as a small-diameter portion, the processing apparatus comprising: a securing jig arranged to secure the object-to-be-cut and formed of a plurality of members including a male mold, a female mold, a first large-diameter-side clamp, a second large-diameter-side clamp, a first small-diameter-side clamp and a third small-diameter-side clamp; a lathe including a rotational drive portion and jaws arranged to hold one end portion of the second large-diameter-side clamp, so that the securing jig is secured to the lathe and is rotatable about an axis by the rotational drive portion; and a cutting tool arranged to cut the object-to-be-cut, wherein the second large-diameter-side clamp has an end portion, opposite to the end portion held by the jaws, secured to the male mold, wherein the first large-diameter-side clamp, the first small-diameter-side clamp and the third small-diameter-side clamp are configured so as to be removably arrangeable in a first and in a second combination pattern, different from each other, without removing the object-to-be-cut from the securing jig and without removing the second large-diameter-side clamp from the jaws, and wherein in the first combination pattern the large-diameter portion is exposed to the cutting tool and in the second combination pattern the small-diameter portion is exposed to the cutting tool. a securing jig arranged to secure the object-to-be-cut and formed of a plurality of members including a male mold, a female mold, a first large-diameter-side clamp, a second large-diameter-side clamp, a first small-diameter-side clamp and a third small-diameter-side clamp; a lathe including a rotational drive portion and jaws arranged to hold one end portion of the second large-diameter-side clamp, so that the securing jig is secured to the lathe and is rotatable about an axis by the rotational drive portion; and a cutting tool arranged to cut the object-to-be-cut, wherein the second large-diameter-side clamp has an end portion, opposite to the end portion held by the jaws, secured to the male mold, wherein the first large-diameter-side clamp, the first small-diameter-side clamp and the third small-diameter-side clamp are configured so as to be removably arrangeable in a first and in a second combination pattern, different from each other, without removing the object-to-be-cut from the securing jig and without removing the second large-diameter-side clamp from the jaws, and wherein in the first combination pattern the large-diameter portion is exposed to the cutting tool and in the second combination pattern the small-diameter portion is exposed to the cutting tool.
A method of the biocatalytical decarboxylation of a compound of formula I, HOOC-C(R 1)(R 2)-COOH or a salt form thereof, wherein residue R 1 represents a linear or branched, mono-unsaturated C 2 -C 8 -alken-1-yl group; and residue R 2 represents H, OH, SH, NH 2, C 1 -C 8 -alkoxy, C 1 -C 8 -alkylthio, C 1 -C 8 -alkyl, C 2 -C 8 -alkenyl, C 2 -C 8 -alkynyl or hydroxyl C 1 -C 8 -alkyl, which method comprises a) contacting at least one compound of formula I with a protein having decarboxylase activity and comprising an amino acid sequence having a sequence identity of 100 % to 25% to the Bordetella bronchiseptica protein of SEQ ID NO: 2 (residues 1 to 240) b) and optionally isolating at least one decarboxylation product of a compound of formula I. residue R 1 represents a linear or branched, mono-unsaturated C 2 -C 8 -alken-1-yl group; and residue R 2 represents H, OH, SH, NH 2, C 1 -C 8 -alkoxy, C 1 -C 8 -alkylthio, C 1 -C 8 -alkyl, C 2 -C 8 -alkenyl, C 2 -C 8 -alkynyl or hydroxyl C 1 -C 8 -alkyl, a) contacting at least one compound of formula I with a protein having decarboxylase activity and comprising an amino acid sequence having a sequence identity of 100 % to 25% to the Bordetella bronchiseptica protein of SEQ ID NO: 2 (residues 1 to 240) b) and optionally isolating at least one decarboxylation product of a compound of formula I.
A method of laying a pipeline, in which pipe sections (2a, 2b) are welded together to form a pipeline being in the form of a multi-layer pipeline, wherein the pipeline is a carbon steel pipeline with a corrosion resistant alloy interior layer, the CRA interior layer being made from a metal different from the carbon steel material of the pipeline, wherein the method includes the following steps: providing a pipe section to be welded to the end of a pipeline, arranging the pipe section adjacent to the end of the pipeline thereby defining a circumferential joint to be welded, and being characterised by the following steps: performing an external weld pass on the root of the joint to be welded during which weld material is deposited in the root of the joint to be welded, thereby forming a root weld, wherein there is penetration into, and a lack of complete penetration through, the CRA interior layer by the root weld, and performing, with the use of plasma welding equipment, an internal weld pass on the root weld during which the root weld is melted and re-shaped, wherein the internal weld pass melts the CRA interior layer so that the root weld penetrates completely through the CRA interior layer. providing a pipe section to be welded to the end of a pipeline, arranging the pipe section adjacent to the end of the pipeline thereby defining a circumferential joint to be welded, and being characterised by the following steps: performing an external weld pass on the root of the joint to be welded during which weld material is deposited in the root of the joint to be welded, thereby forming a root weld, wherein there is penetration into, and a lack of complete penetration through, the CRA interior layer by the root weld, and performing, with the use of plasma welding equipment, an internal weld pass on the root weld during which the root weld is melted and re-shaped, wherein the internal weld pass melts the CRA interior layer so that the root weld penetrates completely through the CRA interior layer. performing an external weld pass on the root of the joint to be welded during which weld material is deposited in the root of the joint to be welded, thereby forming a root weld, wherein there is penetration into, and a lack of complete penetration through, the CRA interior layer by the root weld, and performing, with the use of plasma welding equipment, an internal weld pass on the root weld during which the root weld is melted and re-shaped, wherein the internal weld pass melts the CRA interior layer so that the root weld penetrates completely through the CRA interior layer.
An ostomy appliance (1, 101, 201, 501) comprising - a pouch including a front wall and a rear wall - a waste inlet opening in the rear wall for letting the output from a stom enter into the pouch, - at least one vent opening for letting gas exit the bag, - a filter construction (10, 110, 210, 310, 410, 610) wherein the filter construction comprises a first (11, 111, 211, 411, 611) and second (12, 112, 212, 412, 612) layer of foil defining an enclosure, ∘ the filter construction being attached inside the pouch so that each of the foil-layers are substantially parallel to the front and rear wall of the pouch, the first layer of foil facing the rear wall and the second layer of foil facing the front wall of the pouch, ∘ the filter construction being provided with gas-inlets 14, 114, 614) at least in the second foil-layer (12, 112, 212, 412, 612) and a gas-outlet in the second foil-layer placed in alignment with the vent opening, - the enclosure including a pre-filter element (15, 115, 215, 415, 615) characterised in that the filter construction incorporates an inspection window (125, 225) allowing the user visual access to the stoma and the peristomal area. - a pouch including a front wall and a rear wall - a waste inlet opening in the rear wall for letting the output from a stom enter into the pouch, - at least one vent opening for letting gas exit the bag, - a filter construction (10, 110, 210, 310, 410, 610) wherein the filter construction comprises a first (11, 111, 211, 411, 611) and second (12, 112, 212, 412, 612) layer of foil defining an enclosure, ∘ the filter construction being attached inside the pouch so that each of the foil-layers are substantially parallel to the front and rear wall of the pouch, the first layer of foil facing the rear wall and the second layer of foil facing the front wall of the pouch, ∘ the filter construction being provided with gas-inlets 14, 114, 614) at least in the second foil-layer (12, 112, 212, 412, 612) and a gas-outlet in the second foil-layer placed in alignment with the vent opening, ∘ the filter construction being attached inside the pouch so that each of the foil-layers are substantially parallel to the front and rear wall of the pouch, the first layer of foil facing the rear wall and the second layer of foil facing the front wall of the pouch, ∘ the filter construction being provided with gas-inlets 14, 114, 614) at least in the second foil-layer (12, 112, 212, 412, 612) and a gas-outlet in the second foil-layer placed in alignment with the vent opening, - the enclosure including a pre-filter element (15, 115, 215, 415, 615) characterised in that the filter construction incorporates an inspection window (125, 225) allowing the user visual access to the stoma and the peristomal area.
A method for reading data from persistent storage module "PSM" in a communication fabric, the method comprising: receiving a persistent storage module PSM read request from a client at a processor (112A, 112B), wherein the PSM read request comprises a logical address for data; identifying, at the processor (112A, 112B), a PSM (110A-110D) associated with the logical address; transmitting the PSM read request to the PSM (110A-110D) associated with the logical address; writing the data from the PSM to the client (102A-102D), wherein writing the data comprises transmitting the data through a down stream input/output "IO" tier switch (108A, 108B) coupling a mesh communication fabric to the client, wherein the down stream IO tier switch (108A, 108B) is one of a plurality of tiers of switches of the mesh communication fabric, wherein each of the tiers of switches is coupled to one or more clients (102A-102D), wherein the processor (112A, 112B) can communicate with any of the one or more clients (102A-102D) via any of the tiers of switches over the mesh communication fabric, wherein the plurality of tiers of switches comprises hub tier switches (106A, 106B) and IO tier switches (108A, 108B); transmitting a read completion as one or more transaction layer packets "TLPs" from the PSM (110A-110D) to the down stream IO tier switch (108A, 108B) that is associated with the client (102A-102D) for the down stream IO tier switch (108A, 108B) to route the read completion from the down stream IO tier switch (108A, 108B) to the processor (112A, 112B); and transmitting the read completion from the processor (112A, 112B) to the client (102A-102D). receiving a persistent storage module PSM read request from a client at a processor (112A, 112B), wherein the PSM read request comprises a logical address for data; identifying, at the processor (112A, 112B), a PSM (110A-110D) associated with the logical address; transmitting the PSM read request to the PSM (110A-110D) associated with the logical address; writing the data from the PSM to the client (102A-102D), wherein writing the data comprises transmitting the data through a down stream input/output "IO" tier switch (108A, 108B) coupling a mesh communication fabric to the client, wherein the down stream IO tier switch (108A, 108B) is one of a plurality of tiers of switches of the mesh communication fabric, wherein each of the tiers of switches is coupled to one or more clients (102A-102D), wherein the processor (112A, 112B) can communicate with any of the one or more clients (102A-102D) via any of the tiers of switches over the mesh communication fabric, wherein the plurality of tiers of switches comprises hub tier switches (106A, 106B) and IO tier switches (108A, 108B); transmitting a read completion as one or more transaction layer packets "TLPs" from the PSM (110A-110D) to the down stream IO tier switch (108A, 108B) that is associated with the client (102A-102D) for the down stream IO tier switch (108A, 108B) to route the read completion from the down stream IO tier switch (108A, 108B) to the processor (112A, 112B); and transmitting the read completion from the processor (112A, 112B) to the client (102A-102D).
A rubber composition for tire tread, comprising: 100 parts by weight of a raw material rubber that includes - 20 parts to 80 parts by weight of a first solution polymerized styrene-butadiene rubber having a styrene content of 15% to 25% by weight and a vinyl content in the butadiene of 60% to 65% by weight and produced by a batch method, - 10 parts to 40 parts by weight of a second solution polymerized styrene-butadiene rubber having a styrene content of 30% to 40% by weight and a vinyl content in the butadiene of 20% to 50% by weight and produced by a continuous method, and - 10 parts to 60 parts by weight of butadiene rubber, and 60 parts to 90 parts by weight of a silica having a specific surface area measured by nitrogen adsorption of 155 m 2 /g to 185 m 2 /g and a CTAB value of 150 m 2 /g to 170 m 2 /g. 100 parts by weight of a raw material rubber that includes - 20 parts to 80 parts by weight of a first solution polymerized styrene-butadiene rubber having a styrene content of 15% to 25% by weight and a vinyl content in the butadiene of 60% to 65% by weight and produced by a batch method, - 10 parts to 40 parts by weight of a second solution polymerized styrene-butadiene rubber having a styrene content of 30% to 40% by weight and a vinyl content in the butadiene of 20% to 50% by weight and produced by a continuous method, and - 10 parts to 60 parts by weight of butadiene rubber, and - 20 parts to 80 parts by weight of a first solution polymerized styrene-butadiene rubber having a styrene content of 15% to 25% by weight and a vinyl content in the butadiene of 60% to 65% by weight and produced by a batch method, - 10 parts to 40 parts by weight of a second solution polymerized styrene-butadiene rubber having a styrene content of 30% to 40% by weight and a vinyl content in the butadiene of 20% to 50% by weight and produced by a continuous method, and - 10 parts to 60 parts by weight of butadiene rubber, and 60 parts to 90 parts by weight of a silica having a specific surface area measured by nitrogen adsorption of 155 m 2 /g to 185 m 2 /g and a CTAB value of 150 m 2 /g to 170 m 2 /g.
Rim for a bicycle wherein a filling layer is present on the outer surface and the rim is manufactured by Liquid Composites Moulding, such as an RTM-method or a VARI-method, characterised in that the filling layer is formed as a non-woven layer or a plurality of non-woven layers.
Device for the administration of fluids to a human or animal body, comprising a housing with a first inlet, at least one second inlet (29, 30), one outlet and a collecting point, wherein the first inlet communicates with the collecting point through a first channel and the outlet communicates with the collecting point, characterized in that the second inlet (29, 30) communicates with the collecting point or an indicator chamber (24, 25) through a second channel (21, 22) in which a valve (26, 27) is arranged, the valve (26, 27) being adjustable between a first position and a second position, wherein, in the first position of the valve (26, 27), the second channel (21, 22) communicates with the indicator chamber (24, 25), and, in the second position of the valve (26, 27), the second channel (21, 22) communicates with the collecting point and the indicator chamber (24, 25) comprises an indicator element (60, 61) which changes its color in case of fluid contact.
A process for the preparation of alpha-olefin oligomers, comprising contacting an olefinic feedstock comprising C 5 to C 20 alpha-olefins with a liquid complex catalyst comprising: (i) at least one metal halide salt of the formula MX 3, wherein M is selected from aluminium and gallium, and each X is independently selected from chlorine, bromine and iodine; and (ii) at least one Lewis basic donor ligand containing a donor atom selected from oxygen, sulphur, nitrogen and phosphorus, wherein the at least one Lewis basic donor ligand is selected from the group of compounds consisting of ketones, sulfoxides, phosphine-oxides, ureas, amides, thioketones, thioureas, thioamides, thioethers, amines, nitriles and phosphines; wherein the molar ratio of the at least one metal halide salt to the at least one Lewis basic donor ligand is in the range of from 1:1 to 4:1. (i) at least one metal halide salt of the formula MX 3, wherein M is selected from aluminium and gallium, and each X is independently selected from chlorine, bromine and iodine; and (ii) at least one Lewis basic donor ligand containing a donor atom selected from oxygen, sulphur, nitrogen and phosphorus, wherein the at least one Lewis basic donor ligand is selected from the group of compounds consisting of ketones, sulfoxides, phosphine-oxides, ureas, amides, thioketones, thioureas, thioamides, thioethers, amines, nitriles and phosphines;