mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for preparing a two-dimensional layer of an object during a three-dimensional printing of the object, the apparatus comprising: positioning devices including an elevator platform providing a lower surface on which a fabricated object is formed; and a substrate transparent to curing radiations, having a bottom surface and a top surface ; a selective curing unit comprising a projector suitable to project a two-dimensional image of curing radiation through transparent substrate ; a selective deposition unit comprising a wiper actuator carrying a wiper ; a support material printer actuator carrying a support printer ; a first body material printer actuator carrying a first body material printer ; and a second body material printer actuator carrying a second body material printer ; characterized in that elevator platform is movable vertically in precisely-controlled distance increments ; wiper , support printer , first body material printer and second material printer are movable in a vertical direction, perpendicular to transparent substrate ; and transparent substrate is movable horizontally in precisely-controlled distance increments positioning devices including an elevator platform providing a lower surface on which a fabricated object is formed; and a substrate transparent to curing radiations, having a bottom surface and a top surface ; a selective curing unit comprising a projector suitable to project a two-dimensional image of curing radiation through transparent substrate ; a selective deposition unit comprising a wiper actuator carrying a wiper ; a support material printer actuator carrying a support printer ; a first body material printer actuator carrying a first body material printer ; and a second body material printer actuator carrying a second body material printer ; characterized in that elevator platform is movable vertically in precisely-controlled distance increments ; wiper , support printer , first body material printer and second material printer are movable in a vertical direction, perpendicular to transparent substrate ; and transparent substrate is movable horizontally in precisely-controlled distance increments
A connector comprising: an insulating housing that is configured to be fixed to a casing of a first device at a communication part through which an opening of the casing of the first device and an opening of a casing of a second device communicate with each other; a conductor unit that includes a plurality of conductors arranged in a row and an insulating holding body integrally molded with the conductors ; and a sealing member that seals between the conductor unit and the housing , wherein each of the conductors includes a plate-shaped body and terminal parts provided at both ends of the body , respectively, the holding body includes a fitting part fitted to the housing , a plurality of covering parts each extending from the fitting part along the body and individually surrounding the body , a connecting part connecting the adjacent covering parts at a position separated from the fitting part , characterized in that the connector further comprises a protrusion protruding from the fitting part , and the sealing member includes a connecting part having a recess into which the protrusion is fitted, and annular sealing parts being in close contact with conductors respectively. an insulating housing that is configured to be fixed to a casing of a first device at a communication part through which an opening of the casing of the first device and an opening of a casing of a second device communicate with each other; a conductor unit that includes a plurality of conductors arranged in a row and an insulating holding body integrally molded with the conductors ; and a sealing member that seals between the conductor unit and the housing , wherein each of the conductors includes a plate-shaped body and terminal parts provided at both ends of the body , respectively, the holding body includes a fitting part fitted to the housing , a plurality of covering parts each extending from the fitting part along the body and individually surrounding the body , a connecting part connecting the adjacent covering parts at a position separated from the fitting part , the connector further comprises a protrusion protruding from the fitting part , and the sealing member includes a connecting part having a recess into which the protrusion is fitted, and annular sealing parts being in close contact with conductors respectively.
Concrete composition for shielding from ionizing radiation, such as neutron radiation, containing sand, grit, cement, water, colemanite, a concrete plasticizer and a hardening accelerator, with the following range specifications in weight fractions, in each case based on one m 3 of fresh concrete: Sand 20 to 32 wt.% Grit 46 to 58 wt.% Cement 12 to 20 wt.% Water 3 to 6 wt.% Colemanite 0.45 to 0.9 wt.% Concrete plasticizer 0.05 to 0.09 wt.% Hardening accelerator 0.4 to 1.1 wt.%.
Carbon black particles having (a) a Brunauer-Emmett-Teller (BET) surface area as determined by ASTM D6556-10, ranging from 70 to 120 m 2 /g; (b) an oil absorption number (OAN) as determined by the method described in ASTM D2414-13a, using epoxidized fatty acid ester (EFA) oil and Procedure B,ranging from 180 to 310 mL/100 g; (c) a surface energy measured by Dynamic Water (Vapor) Sorption (DVS) or water spreading pressure according to the description, of less than or equal to 10 mJ/m 2 ; and (d) an L a crystallite size as determined by Raman spectroscopy according to the description, of 25 Å to 35 Å, and an average primary particle size as determined by ASTM D3849-14a, of 12 nm to 24 nm. (a) a Brunauer-Emmett-Teller (BET) surface area as determined by ASTM D6556-10, ranging from 70 to 120 m 2 /g; (b) an oil absorption number (OAN) as determined by the method described in ASTM D2414-13a, using epoxidized fatty acid ester (EFA) oil and Procedure B,ranging from 180 to 310 mL/100 g; (c) a surface energy measured by Dynamic Water (Vapor) Sorption (DVS) or water spreading pressure according to the description, of less than or equal to 10 mJ/m 2 ; and (d) an L a crystallite size as determined by Raman spectroscopy according to the description, of 25 Å to 35 Å, and
A fluorophosphate optical glass, characterized by comprising the following components in molar percentage of cations: 2-20% of P 5+ , 20-40% of Al 3+ ,0.5-10% of Ba 2+ , 5-25% of Sr 2+ , 15-35% of Ca 2+ , and 1-15% of Mg 2+ ; and the glass containing the following components in molar percentage of anions: 83-95% of F- and 5-17% of O 2- ; and wherein Ba 2+ /Ca 2+ is 0.01-0.155 and Ba 2+ /(Ca 2+ +Mg 2+ ) is 0.09-0.125.
Method, carried out by a management entity (ENT2), for managing reception of a message (M) from a transmitting device (D1) via a communication network (RES), said message (M) being intended to be restored and being able to be searched for among a plurality of received messages on the basis of keywords, characterized in that it comprises a step of receiving (ET21) a message comprising a datum that is representative of a conditional display message, and in that , upon detection of the datum, the method comprises a step of storing the message and conditionally restoring the message; the message being restored only if it is the result of a subsequent search.
A method for coordinated multipoint (CoMP) communication by a first base station , comprising: transmitting , to a second base station , a first message including a reference signal received power (RSRP) measurement report and a channel state information (CSI) report of a terminal; and receiving , from the second base station, a second message including coordination information and a benefit metric which are determined based on the RSRP measurement report and the CSI report at the second base station, wherein the benefit metric indicates an expected benefit in case that the coordination information is applied. transmitting , to a second base station , a first message including a reference signal received power (RSRP) measurement report and a channel state information (CSI) report of a terminal; and receiving , from the second base station, a second message including coordination information and a benefit metric which are determined based on the RSRP measurement report and the CSI report at the second base station, wherein the benefit metric indicates an expected benefit in case that the coordination information is applied.
Control logic for a wireless power receiver configured to adapt the wireless power receiver to: establish wireless power reception during a wireless power transfer session from a wireless power transmitter at a first power level; after establishing the wireless power reception at the first power level, execute an authentication process with the wireless power transmitter; if the authentication process completes successfully, send session attribute information to a memory ; wherein, after sending the session attribute information to the memory, there is an interruption of wireless power reception at the first power level at the wireless power receiver; receive session attribute information from the memory after the interruption of wireless power reception; and after receiving the session attribute information from the memory, establish wireless power reception from the wireless power transmitter at a second power level that is higher than the first power level. establish wireless power reception during a wireless power transfer session from a wireless power transmitter at a first power level; after establishing the wireless power reception at the first power level, execute an authentication process with the wireless power transmitter; if the authentication process completes successfully, send session attribute information to a memory ; wherein, after sending the session attribute information to the memory, there is an interruption of wireless power reception at the first power level at the wireless power receiver; receive session attribute information from the memory after the interruption of wireless power reception; and after receiving the session attribute information from the memory, establish wireless power reception from the wireless power transmitter at a second power level that is higher than the first power level.
A method for processing a rule operation, the method comprising: receiving, by a terminal, a rule operation request of a service (S601); obtaining, by the terminal, a rule corresponding to the rule operation request from a rule set of the service, wherein the rule set is obtained from a server based on a device identifier and/or a user identifier corresponding to the terminal (S602); generating, by the terminal, a rule tree based on the rule (S603); obtaining, by the terminal, service data related to the rule tree (S603); and determining, by the terminal, an operation result of the rule based on the rule tree and the service data (S604). receiving, by a terminal, a rule operation request of a service (S601); obtaining, by the terminal, a rule corresponding to the rule operation request from a rule set of the service, wherein the rule set is obtained from a server based on a device identifier and/or a user identifier corresponding to the terminal (S602); generating, by the terminal, a rule tree based on the rule (S603); obtaining, by the terminal, service data related to the rule tree (S603); and determining, by the terminal, an operation result of the rule based on the rule tree and the service data (S604).
A cassette handling device for handling cassettes for radiolabeled compound synthesis comprising: a first microfluidic synthesis cassette comprising nonradioactive reagents to generate a first radiolabeled compound when reacted with a first radioactive isotope; a second microfluidic synthesis cassette comprising nonradioactive reagents to generate a second radiolabeled compound when reacted with a second radioactive isotope; a magazine comprising first and second slots accommodating the first and second microfluidic synthesis cassettes, respectively; and an interface adapted to couple the magazine to a cassette handling platform configured to receive the first or second microfluidic synthesis cassettes, wherein the cassette handling platform is configured to operatively couple to a radiosynthesis device, and wherein the radiosynthesis device is shielded and the cassette handing device is unshielded, and wherein the first and second slots are different shapes such that the first microfluidic synthesis cassette cannot be loaded into the second slot. a first microfluidic synthesis cassette comprising nonradioactive reagents to generate a first radiolabeled compound when reacted with a first radioactive isotope; a second microfluidic synthesis cassette comprising nonradioactive reagents to generate a second radiolabeled compound when reacted with a second radioactive isotope; a magazine comprising first and second slots accommodating the first and second microfluidic synthesis cassettes, respectively; and an interface adapted to couple the magazine to a cassette handling platform configured to receive the first or second microfluidic synthesis cassettes, wherein the cassette handling platform is configured to operatively couple to a radiosynthesis device, and wherein the radiosynthesis device is shielded and the cassette handing device is unshielded, and wherein the first and second slots are different shapes such that the first microfluidic synthesis cassette cannot be loaded into the second slot.
A method of determining a form measurement for a curved feature of an artefact , the method comprising: i) a machine tool relatively moving the artefact and a measurement device along a predefined curved path in a first direction, to obtain a first set of data points along the surface of the curved feature; ii) the machine tool relatively moving the artefact and the measurement device along a predefined curved path in a second direction, opposite to the first direction, to obtain a second set of data points along the surface of the curved feature; and iii) using the first and second sets of data points to determine a form measurement for the artefact; in which the relative movement along the predefined curved path in the first and second directions in steps i) and ii) is effected by the motion of at least one linear movement axis of the machine tool, which is reversed during said movement along the predefined curved path in each of the first and second directions. i) a machine tool relatively moving the artefact and a measurement device along a predefined curved path in a first direction, to obtain a first set of data points along the surface of the curved feature; ii) the machine tool relatively moving the artefact and the measurement device along a predefined curved path in a second direction, opposite to the first direction, to obtain a second set of data points along the surface of the curved feature; and iii) using the first and second sets of data points to determine a form measurement for the artefact;
A method for use in communication system wherein a client device requests media segments from a media ingestion system , the method comprising: constructing, at the media ingestion system , forward error correction, FEC, blocks in a FEC segment that correspond to media fragments in a media segment , wherein the FEC blocks in the FEC segment have the same order as the media fragments in the media segment , and wherein FEC symbols in the FEC blocks are in order of their encoding symbol identifier; and naming, using the media ingestion system , a plurality of segments such that media segments containing media fragments and FEC segments containing FEC blocks are named according to a derivable pattern derivable at a client device , thereby allowing a client device to derive names of corresponding FEC segments in order to make requests for those FEC segments based on media fragments needed by the client device. constructing, at the media ingestion system , forward error correction, FEC, blocks in a FEC segment that correspond to media fragments in a media segment , wherein the FEC blocks in the FEC segment have the same order as the media fragments in the media segment , and wherein FEC symbols in the FEC blocks are in order of their encoding symbol identifier; and naming, using the media ingestion system , a plurality of segments such that media segments containing media fragments and FEC segments containing FEC blocks are named according to a derivable pattern derivable at a client device , thereby allowing a client device to derive names of corresponding FEC segments in order to make requests for those FEC segments based on media fragments needed by the client device.
Hot beverage preparation device having a valve arrangement which has at least three actuatable valves (2a; 2b; 2c), a brewing unit with a brewing chamber movable between functional positions (A; B), and a coupling device which couples a movement of the movable brewing chamber and/or a movable part of the brewing unit with an actuation of the at least three actuatable valves (2a; 2b; 2c) of the valve arrangement , characterised in that a detection device detects the movement of the movable brewing chamber and/or the movable part of the brewing unit and detects an actuation of each of the at least three actuatable valves (2a; 2b; 2c).
Automatic coffee machine comprising a bean grinder , a device for inserting a dose of grinds, a frame provided with at least one side wall and a brewing chamber provided with an upper opening for receiving coffee grinds from the bean grinder or from the device for inserting a dose of grinds, said insertion device being arranged on at least one side wall and comprising a dosing reservoir which can be rotated about an axis Δ between a loading position in which a dose of grinds can be deposited in said dosing reservoir , and an unloading position in which the dose of grinds is transferred by gravity to the brewing chamber , the insertion device being configured to enable a user to insert a dose of grinds from coffee beans different from the coffee beans present in the bean grinder , the dose of grinds being deposited manually in the insertion device , the axis Δ being parallel to the at least one side wall .
A backing absorber for use with an ultrasonic transducer, comprising: a first elemental multilayer having at least one metal layer and at least one adhesive layer , and a second elemental multilayer having at least one metal layer and at least one adhesive layer , the second elemental multilayer bonded to said first elemental multilayer , wherein (a) said at least one metal layer of said second multilayer is bonded to said at least one adhesive layer of said first multilayer or (b) said at least one adhesive layer of said second multilayer is bonded to said at least one metal layer of said first multilayer and wherein a planar surface of one of the layers of the first elemental multilayer of said backing absorber is adapted to be coupled to a corresponding planar surface of a vibrating layer of said ultrasonic transducer , characterized in that the backing absorber further comprises at least a third elemental multilayer having at least one metal layer and at least one adhesive layer , wherein each elemental multilayer further includes a polymer layer , wherein each of said at least one metal layer is deposited on a corresponding one of said polymer layers to form a periodic grating of metal strips wherein the direction or period of the grating is different for each elemental layer . a first elemental multilayer having at least one metal layer and at least one adhesive layer , and a second elemental multilayer having at least one metal layer and at least one adhesive layer , the second elemental multilayer bonded to said first elemental multilayer , wherein (a) said at least one metal layer of said second multilayer is bonded to said at least one adhesive layer of said first multilayer or (b) said at least one adhesive layer of said second multilayer is bonded to said at least one metal layer of said first multilayer and wherein a planar surface of one of the layers of the first elemental multilayer of said backing absorber is adapted to be coupled to a corresponding planar surface of a vibrating layer of said ultrasonic transducer , characterized in that the backing absorber further comprises at least a third elemental multilayer having at least one metal layer and at least one adhesive layer , wherein each elemental multilayer further includes a polymer layer , wherein each of said at least one metal layer is deposited on a corresponding one of said polymer layers to form a periodic grating of metal strips wherein the direction or period of the grating is different for each elemental layer .
Solventborne, pigmented coating composition having a solids fraction of at least 35%, characterized in that it comprises, based on the total amount of the coating composition, 0.1 to 1.5 wt% of at least one copolymer (A), where the copolymer (A) is obtainable by copolymerization of a mixture of olefinically unsaturated monomers (a) in at least one organic solvent, the mixture of monomers (a) to be polymerized consists of (a1) 10 to 60 mol% of at least one monomer of the formula (I) below where R 1 = C 1 to C 4 alkoxy, R 2 = C 1 to C 4 alkyl, and m = 0 to 2, and also (a2) 40 to 90 mol% of at least one further olefinically unsaturated monomer, and the copolymer (A) possesses a glass transition temperature T g , measured in accordance with the description, of at least -30°C. (a1) 10 to 60 mol% of at least one monomer of the formula (I) below where R 1 = C 1 to C 4 alkoxy, R 2 = C 1 to C 4 alkyl, and m = 0 to 2, and also (a2) 40 to 90 mol% of at least one further olefinically unsaturated monomer, and the copolymer (A) possesses a glass transition temperature T g , measured in accordance with the description, of at least -30°C.