mhurhangee/ep-ind-claims huggingface dataset:
- A reloading device for ammunition for a barrel comprising regularly angularly distributed cells and associated with a large-calibre weapon, the device being characterised in that it includes a plurality of support tubes for containing ammunition, which support tubes are secured with one another and are arranged so as to form a cylinder portion that is centred on an axis which is intended to be aligned with a central axis of the barrel, the device including a pushing carriage able to translate along the longitudinal axis of the cylinder portion by means of a motor means, which carriage includes as many connecting arms as there are support tubes, each arm being guided along a slot of each tube and including a pushing surface able to slide in the associated support tube, all the pushing surfaces being intended to push simultaneously all the ammunition out of the support tubes, towards the cells of the barrel.
Aqueous pseudoplastic gel composition for industrial high-speed spraying, having a first viscosity η 1 at a shear rate of 0.01 s -1 of between 5 and 200 Pa·s and a second viscosity η 2 at a shear rate of 100 s -1 that is between 10 and 1000 times lower than the first viscosity, wherein the aqueous pseudoplastic gel consists of, based on the total weight of the composition: • 15 - 60 wt.% of water; • 20 - 60 wt.% of spherical glass beads having a median particle diameter D50, as measured with laser diffraction, between 20 and 150 μm, and a refractive index, measured at a wavelength λ of 589 nm, between 1.8 and 2.8, wherein optionally at least part of the spherical glass beads are hemispherically coated with a light-reflective coating; • 0.15 - 1.5 wt.% of a thickener, wherein the thickener is chosen from the group consisting of ASE polymers, HASE polymers, HEUR polymers, liquid acrylic crosslinked or copolymer dispersions, acrylates crosspolymers, crosslinked polyacrylic acid polymers, crosslinked polyacrylic acid copolymers, non-ionic aqueous emulsions of a modified ethylene vinyl acetate copolymer wax, and combinations thereof; and • 0 - 50 wt.% of one or more further ingredients; wherein the viscosity is measured with a rheometer with a plate-plate geometry and a gap distance of 0.5 mm at a temperature of 25 °C. • 15 - 60 wt.% of water; • 20 - 60 wt.% of spherical glass beads having a median particle diameter D50, as measured with laser diffraction, between 20 and 150 μm, and a refractive index, measured at a wavelength λ of 589 nm, between 1.8 and 2.8, wherein optionally at least part of the spherical glass beads are hemispherically coated with a light-reflective coating; • 0.15 - 1.5 wt.% of a thickener, wherein the thickener is chosen from the group consisting of ASE polymers, HASE polymers, HEUR polymers, liquid acrylic crosslinked or copolymer dispersions, acrylates crosspolymers, crosslinked polyacrylic acid polymers, crosslinked polyacrylic acid copolymers, non-ionic aqueous emulsions of a modified ethylene vinyl acetate copolymer wax, and combinations thereof; and • 0 - 50 wt.% of one or more further ingredients;
A moving cellular communication system comprising: a plurality of moving relays (11, 12, 13) each including base station functionality, a radio manager (31, 32, 33) and mobile station functionality, all co-located, wherein each base station functionality is operative to communicate via antennae with at least one mobile station (18, 34, 35) thereby to define a first radio link there between, and wherein each base station functionality has a physical connection to its co-located radio manager, wherein each mobile station functionality is configured to communicate via antennae with a unit which has base station functionality thereby to define a second radio link, wherein the radio manager in each individual moving relay comprises: a radio resource manager (50, 58, 59); and functionality for exchanging information with radio managers included in moving relays other than said individual moving relay, wherein said radio resource manager is configured to use said information to select, for at least one individual mobile station seeking to be served, one of: a static base station; and a base station functionality, to which to connect said individual mobile station in order to provide cellular communication services thereto. a plurality of moving relays (11, 12, 13) each including base station functionality, a radio manager (31, 32, 33) and mobile station functionality, all co-located, wherein each base station functionality is operative to communicate via antennae with at least one mobile station (18, 34, 35) thereby to define a first radio link there between, and wherein each base station functionality has a physical connection to its co-located radio manager, wherein each mobile station functionality is configured to communicate via antennae with a unit which has base station functionality thereby to define a second radio link, wherein the radio manager in each individual moving relay comprises: a radio resource manager (50, 58, 59); and functionality for exchanging information with radio managers included in moving relays other than said individual moving relay, a radio resource manager (50, 58, 59); and functionality for exchanging information with radio managers included in moving relays other than said individual moving relay, wherein said radio resource manager is configured to use said information to select, for at least one individual mobile station seeking to be served, one of: a static base station; and a base station functionality, a static base station; and a base station functionality, to which to connect said individual mobile station in order to provide cellular communication services thereto.
Heat recovery system comprising at least one exhaust air heat exchanger for an exhaust air stream of a ventilation and/or air conditioning installation and at least one outside air heat exchanger for an intake air stream for this installation, the heat exchangers (3, 9) being in a combined circuit, characterized in that, in order to obtain cold from the outside air from the combined circuit, at least one part circuit can be separated in that there is arranged an exhaust air heat exchanger through which it is possible to convey outside air, which has been cooled adiabatically by means of an atomising device, in order to cool the fluid in this part circuit, the part circuit having at least one heat exchanger by means of which the obtained cold can be transferred into a cooling circuit (16, 17, 23) which has a cold store whence cooled fluid can be drawn as required.
A composition comprising: (a) a mixture of dialkyl imidazoline quats, wherein said quats include an imidazoline ring, a quaternary nitrogen atom, and two alkyl groups having 10 or more carbon atoms, in the amount of from about 10% to about 90% by weight with respect to the sum of the weights of the components (a) and (b), wherein at least a portion of the mixture includes at least one dialkyl imidazoline quat having at least one C 20 -C 24 alkyl group; the C 20-24 substitution content of said mixture being from about 10% to about 95% with respect to C 10+ reference substitution range, as defined and calculated in the description; and (b) at least one monoalkyl quat, wherein said quat(s) contains a quaternary nitrogen atom and one alkyl group having 10 or more carbon atoms, in the amount of from about 10% to about 90% by weight with respect to the sum of the weights of the components (a) and (b). (a) a mixture of dialkyl imidazoline quats, wherein said quats include an imidazoline ring, a quaternary nitrogen atom, and two alkyl groups having 10 or more carbon atoms, in the amount of from about 10% to about 90% by weight with respect to the sum of the weights of the components (a) and (b), wherein at least a portion of the mixture includes at least one dialkyl imidazoline quat having at least one C 20 -C 24 alkyl group; the C 20-24 substitution content of said mixture being from about 10% to about 95% with respect to C 10+ reference substitution range, as defined and calculated in the description; and (b) at least one monoalkyl quat, wherein said quat(s) contains a quaternary nitrogen atom and one alkyl group having 10 or more carbon atoms, in the amount of from about 10% to about 90% by weight with respect to the sum of the weights of the components (a) and (b).
Use of an additive, characterized by comprising the following components by mass percentage: 20-30% of organocopper complex, 0.5-1% of plasticizer, and an organic solvent, the sum of the mass percentages of the components being 100%, the organocopper complex being an oil-soluble substance, the mass percentage of Cu in the organocopper complex being greater than 10%, the organocopper complex containing a polar group and/or an alkyl chain having more than 3 C atoms, in the preparation of a samarium-cobalt 2: 17 type magnet. the organocopper complex being an oil-soluble substance, the mass percentage of Cu in the organocopper complex being greater than 10%, the organocopper complex containing a polar group and/or an alkyl chain having more than 3 C atoms, in the preparation of a samarium-cobalt 2: 17 type magnet.
A method comprising: receiving, at a processor, a first data frame at a first time from a first microphone; receiving, at the processor, a second data frame at the first time from a second microphone; determining whether the first data frame and the second data frame each include a single source of data, or whether the first data frame or the second data frame include more than a single source of data, wherein said source of data is a directional sound source signal or a distributed background noise signal; in response to determining that the first data frame and the second data frame each include a single source of data, performing a gain calibration processing; wherein performing a gain calibration processing comprises: determining whether the first data frame and the second data frame are noise data frames; calculating a power ratio of the first microphone and the second microphone based on the first data frame and the second data frame in response to determining that the first data frame and the second data frame are noise data frames; and determining a gain calibration value based on the power ratio. receiving, at a processor, a first data frame at a first time from a first microphone; receiving, at the processor, a second data frame at the first time from a second microphone; determining whether the first data frame and the second data frame each include a single source of data, or whether the first data frame or the second data frame include more than a single source of data, wherein said source of data is a directional sound source signal or a distributed background noise signal; in response to determining that the first data frame and the second data frame each include a single source of data, performing a gain calibration processing; wherein performing a gain calibration processing comprises: determining whether the first data frame and the second data frame are noise data frames; calculating a power ratio of the first microphone and the second microphone based on the first data frame and the second data frame in response to determining that the first data frame and the second data frame are noise data frames; and determining a gain calibration value based on the power ratio. determining whether the first data frame and the second data frame are noise data frames; calculating a power ratio of the first microphone and the second microphone based on the first data frame and the second data frame in response to determining that the first data frame and the second data frame are noise data frames; and determining a gain calibration value based on the power ratio.
A method for performing wireless communication by a first device, the method comprising: selecting a symbol for transmission of a channel state information-reference signal, CSI-RS; and transmitting, to a second device, a physical sidelink shared channel, PSSCH, carrying sidelink control information, SCI, including information related to a channel state information, CSI, request, wherein, based on the PSSCH being mapped to the symbol in a slot: the CSI-RS is transmitted on one or more resource elements, REs, within the symbol; and the method further comprises receiving, from the second device, channel state information, CSI, related to the CSI request included in the SCI, wherein the information represents that CSI is requested, and wherein, based on a physical sidelink feedback channel, PSFCH, being mapped to the symbol in the slot, the CSI-RS is not transmitted on the one or more REs within the symbol, and wherein the information represents that CSI is not requested. selecting a symbol for transmission of a channel state information-reference signal, CSI-RS; and transmitting, to a second device, a physical sidelink shared channel, PSSCH, carrying sidelink control information, SCI, including information related to a channel state information, CSI, request, wherein, based on the PSSCH being mapped to the symbol in a slot: the CSI-RS is transmitted on one or more resource elements, REs, within the symbol; and the method further comprises receiving, from the second device, channel state information, CSI, related to the CSI request included in the SCI, wherein the information represents that CSI is requested, and wherein, based on a physical sidelink feedback channel, PSFCH, being mapped to the symbol in the slot, the CSI-RS is not transmitted on the one or more REs within the symbol, and wherein the information represents that CSI is not requested. the CSI-RS is transmitted on one or more resource elements, REs, within the symbol; and the method further comprises receiving, from the second device, channel state information, CSI, related to the CSI request included in the SCI, wherein the information represents that CSI is requested, and wherein, based on a physical sidelink feedback channel, PSFCH, being mapped to the symbol in the slot, the CSI-RS is not transmitted on the one or more REs within the symbol, and wherein the information represents that CSI is not requested.
A lens, which is a spectacle lens comprising multilayer films on both surfaces of a lens substrate, wherein - the sum of mean reflectances on both surfaces of the lens in a wavelength band of 400-440 nm is ≥ 20.0%, - there is a difference between the mean reflectance on one surface of the lens and that on the other surface in the wavelength band of 400-440 nm, characterized in that - the reflectance on each surface of the lens has at least one maximum value in the wavelength band of 400-440 nm, and - the sum of mean reflectances on both surfaces of the lens in a wavelength band of 360-400 nm is ≤ 6.0%. - the sum of mean reflectances on both surfaces of the lens in a wavelength band of 400-440 nm is ≥ 20.0%, - there is a difference between the mean reflectance on one surface of the lens and that on the other surface in the wavelength band of 400-440 nm, characterized in that - the reflectance on each surface of the lens has at least one maximum value in the wavelength band of 400-440 nm, and - the sum of mean reflectances on both surfaces of the lens in a wavelength band of 360-400 nm is ≤ 6.0%.
Stanchion for supporting obstacle bars for horses, comprising a base (2, 2A, 2 B) intended to rest on the ground, from which a projecting prop extends, comprising a foot and an elongate body of longitudinal axis, said base (2, 2 A, 2 B) being in the form of a hollow chamber made from plastics material, provided with an internal space delimited by a bottom face (8, 8 A, 8 B) intended to rest on the ground, a top face (7, 7A, 7B) and lateral faces (9, 9 A, 9 B; 10, 10 A, 10 B; 11, 11 A, 11 B; 12, 12 A, 12 B), said top face (7, 7 A, 7 B) comprising at least one housing (13, 13 A, 13 B) with a polygonal cross section, the axis of which extends perpendicular to said bottom face (8, 8 A, 8 B), suitable for the removable reception of said prop foot, with complementary polygonal cross section, said hollow chamber comprising an orifice equipped with a removable plug, for allowing the at least partial filling of said internal space with a ballast product, said prop also being in the form of a hollow chamber made from plastics material, said prop body being provided with means for receiving removable projecting lugs (4 b, 4 c), suitable for supporting one of the ends of an obstacle bar, provided on one of its faces, characterised in that said prop body comprises a plurality of single-piece lugs (4 a), also suitable for supporting one of the ends of an obstacle bar, provided on its face opposite to the one provided with said means for receiving said removable lugs (4 b, 4 c).
A method of transmitting data from a first device, the method comprising at said first device: establishing a connection with a first one of a plurality of second devices (A-F); establishing a first virtual connection, said first virtual connection being between said first device and a third device through said first one of a plurality of second devices (A-F); receiving from a fourth device details of a latency of a second virtual connection between said fourth device and said third device through a second one of said plurality of second devices (A-F), said fourth device being connected to said first device; selecting, at least partly based upon respective latencies of said first and second virtual connections (C1, C2), one of said first or second virtual connections (C1, C2) for transmission of a data packet to said third device based upon the details of the second virtual connection; and transmitting data to said third device using said selected connection. establishing a connection with a first one of a plurality of second devices (A-F); establishing a first virtual connection, said first virtual connection being between said first device and a third device through said first one of a plurality of second devices (A-F); receiving from a fourth device details of a latency of a second virtual connection between said fourth device and said third device through a second one of said plurality of second devices (A-F), said fourth device being connected to said first device; selecting, at least partly based upon respective latencies of said first and second virtual connections (C1, C2), one of said first or second virtual connections (C1, C2) for transmission of a data packet to said third device based upon the details of the second virtual connection; and transmitting data to said third device using said selected connection.
A bag system, comprising: a. a main bag, including a front side, wherein: i. a slit is disposed along the front side; and ii. a buckle is coupled to an interior surface of the front side; and b. a supplemental bag, removably coupled to the main bag, and including a connector (20, 50), wherein: i. the connector is disposed along a back side of the supplemental bag; and ii. the connector is disposed through the slit and removably coupled to the buckle, the connector and the buckle thereby comprising a latch assembly, characterized in that a profile of the connector is U-shaped. a. a main bag, including a front side, wherein: i. a slit is disposed along the front side; and ii. a buckle is coupled to an interior surface of the front side; and i. a slit is disposed along the front side; and ii. a buckle is coupled to an interior surface of the front side; and b. a supplemental bag, removably coupled to the main bag, and including a connector (20, 50), wherein: i. the connector is disposed along a back side of the supplemental bag; and ii. the connector is disposed through the slit and removably coupled to the buckle, the connector and the buckle thereby comprising a latch assembly, characterized in that a profile of the connector is U-shaped. i. the connector is disposed along a back side of the supplemental bag; and ii. the connector is disposed through the slit and removably coupled to the buckle, the connector and the buckle thereby comprising a latch assembly, characterized in that a profile of the connector is U-shaped.
A brake shoe for a rail wheel brake, having a pad support that supports a brake shoe sole piece that is curved concavely in longitudinal extension, said pad support having a backplate composed of sheet metal and a supporting grate attached thereto, to which supporting grate the brake shoe sole piece is joined, wherein the backplate has shaped elements (5, 6), projecting in each case, on the side facing away from the supporting grate to allow for twist-proof abutment against a brake shoe holder and on the curved side facing towards the supporting grate to allow for form-fitting connection to the supporting grate, characterised in that the shaped elements (5, 6) provided on both sides are formed in the manner of cups by deep drawing.
A spacer for ionizing radiation therapy, comprising a fiber assembly obtained by three-dimensionally entangling a fibrous material formed of a biocompatible synthetic polymeric material, characterized in that voids are distributed in the fiber assembly obtained by three-dimensionally entangling a fibrous material and in that the fiber assembly contains by weight, at least 90 % or more water, wherein radiation is shielded by virtue of water.
A method comprising: storing a first pathloss value and a second pathloss value for a first entity and a first pathloss value and a second pathloss value for a second entity, wherein the first pathloss value is a master cell group pathloss value and the second pathloss value is a secondary cell group pathloss value; and wherein the first entity is a master eNodeB medium access control protocol entity and the second entity is a secondary eNodeB medium access control protocol entity; determining whether the first pathloss value or the second pathloss value has changed more than a corresponding threshold value for each of the first entity and second entity; determining whether a user equipment has uplink resources for a new transmission before triggering the power headroom; and triggering a power headroom report in an instance where, for at least one of the first entity or second entity, the first pathloss value or second pathloss value has changed more than the corresponding threshold value. storing a first pathloss value and a second pathloss value for a first entity and a first pathloss value and a second pathloss value for a second entity, wherein the first pathloss value is a master cell group pathloss value and the second pathloss value is a secondary cell group pathloss value; and wherein the first entity is a master eNodeB medium access control protocol entity and the second entity is a secondary eNodeB medium access control protocol entity; determining whether the first pathloss value or the second pathloss value has changed more than a corresponding threshold value for each of the first entity and second entity; determining whether a user equipment has uplink resources for a new transmission before triggering the power headroom; and triggering a power headroom report in an instance where, for at least one of the first entity or second entity, the first pathloss value or second pathloss value has changed more than the corresponding threshold value.