mhurhangee/patent-ind-claim-en huggingface dataset:
A diffractive optical device comprising at least one diffractive optical element , wherein the at least one diffractive optical element generates light having a first order and light having a second order from a laser beam input to the at least one diffractive optical element , and superimposes the light having the first order and the light having the second order on each other on an optical axis of the laser beam to cause interference between the light having the first order and the light having the second order , the light having the first order and the light having the second order having diffraction orders different from each other, the at least one diffractive optical element includes a first phase pattern and a second phase pattern , the first phase pattern converts the laser beam into a line beam , the second phase pattern diffracts the laser beam in a short axis direction of the line beam to generate the light having the first order and the light having the second order , a first focal plane of the light having the first order is located at a position different from a second focal plane of the light having the second order on the optical axis the second phase pattern includes a central phase pattern and peripheral phase patterns disposed on both sides relative to the central phase pattern in the short axis direction, the central phase pattern provides a first optical phase to the laser beam , each of the peripheral phase patterns provides a second optical phase different from the first optical phase to the laser beam , and a difference between the first optical phase and the second optical phase is π. the at least one diffractive optical element generates light having a first order and light having a second order from a laser beam input to the at least one diffractive optical element , and superimposes the light having the first order and the light having the second order on each other on an optical axis of the laser beam to cause interference between the light having the first order and the light having the second order , the light having the first order and the light having the second order having diffraction orders different from each other, the at least one diffractive optical element includes a first phase pattern and a second phase pattern , the first phase pattern converts the laser beam into a line beam , the second phase pattern diffracts the laser beam in a short axis direction of the line beam to generate the light having the first order and the light having the second order , a first focal plane of the light having the first order is located at a position different from a second focal plane of the light having the second order on the optical axis the second phase pattern includes a central phase pattern and peripheral phase patterns disposed on both sides relative to the central phase pattern in the short axis direction, the central phase pattern provides a first optical phase to the laser beam , each of the peripheral phase patterns provides a second optical phase different from the first optical phase to the laser beam , and a difference between the first optical phase and the second optical phase is π.
A die casting furnace system , comprising: a die casting holding furnace unit defining a cavity for holding a molten metal ; a dosing unit disposed within said cavity and defining a dosing area disposed in fluid communication with said cavity for receiving the molten metal during a pressurization of said cavity ; and an ultrasonic unit operably coupled with said dosing area and configured to introduce vibration into the received molten metal for facilitating the removal of gases from the received molten metal , wherein said ultrasonic unit includes a probe extending into said dosing area to establish said operable coupling between said ultrasonic unit and said dosing area and additionally introduce a degassing agent into the received molten metal . a die casting holding furnace unit defining a cavity for holding a molten metal ; a dosing unit disposed within said cavity and defining a dosing area disposed in fluid communication with said cavity for receiving the molten metal during a pressurization of said cavity ; and an ultrasonic unit operably coupled with said dosing area and configured to introduce vibration into the received molten metal for facilitating the removal of gases from the received molten metal , wherein said ultrasonic unit includes a probe extending into said dosing area to establish said operable coupling between said ultrasonic unit and said dosing area and additionally introduce a degassing agent into the received molten metal .
A two-dimensional dot matrix barcode encoding method, which is characterized in that a two-dimensional dot matrix barcode (701, 801, ...) is composed of M×N virtual code point storage blocks , and a plurality of coordinate calibration blocks (720, 820,...), a plurality of data storage blocks (730, 830, ...) and a direction indication block (710, 810, ...) are formed by filling code points into the virtual code point storage blocks respectively, wherein code points filled in the plurality of coordinate calibration blocks (720, 820,...) are located in the center of the virtual code point storage block ; the direction indication block (710, 810, ...) is filled with at least two code points , only one code point being located in the center of the virtual code point storage block ; the plurality of coordinate calibration blocks (720, 820,...) and the direction indication block (710, 810, ...) are separated from each other and distributed among the plurality of data storage blocks (730, 830, ...); code points filled in the plurality of data storage blocks (730, 830, ...) are used to store data information; and the plurality of coordinate calibration blocks (720, 820,...) and the plurality of data storage blocks (730, 830, ...) have only one code point , where M≥4, N≥4, and M and N are both even numbers.
A compound of Formula (I): or a pharmaceutically acceptable salt thereof, wherein: Y 1 is -CR 14 - or N, Y 2 is -CR 15 - or N, Y 3 is -C(O)-, Y 4 is -CH 2 -, or -N(R 16 )-, or Y 3 and Y 4 together are -C(R 17 )=C(R 18 )-, X is heteroaryl-C 1-6 alkyl, Z is C 2-6 alkyl or C 1-6 alkoxy-C 1-6 alkyl, R is H or C 1 -C 6 alkyl, R 1 -R 18 are independently -H or C 1 -C 6 alkyl, and Q is CH or N; wherein heteroaryl is a 5- to 10-membered C 1-9 heteroaryl group which is monocyclic or bicyclic and which has 1 to 4 heteroatoms independently selected from nitrogen, sulfur and oxygen. Y 1 is -CR 14 - or N, Y 2 is -CR 15 - or N, Y 3 is -C(O)-, Y 4 is -CH 2 -, or -N(R 16 )-, or Y 3 and Y 4 together are -C(R 17 )=C(R 18 )-, X is heteroaryl-C 1-6 alkyl, Z is C 2-6 alkyl or C 1-6 alkoxy-C 1-6 alkyl, R is H or C 1 -C 6 alkyl, R 1 -R 18 are independently -H or C 1 -C 6 alkyl, and Q is CH or N; wherein heteroaryl is a 5- to 10-membered C 1-9 heteroaryl group which is monocyclic or bicyclic and which has 1 to 4 heteroatoms independently selected from nitrogen, sulfur and oxygen.
A composition for sealing inorganic substrates, the composition comprising a glass frit and a filler material, wherein said glass frit comprises: 60 to 85 wt% Bi 2 O 3 ; 3 to 15 wt% ZnO; 2 to 10 wt % B 2 O 3 ; 0.5 to 5 wt% SiO 2 ; 0.5 to 5 wt% Al 2 O 3 ; and 0.1 to 0.5 wt% of a compound selected from NaF and BaF 2 . 60 to 85 wt% Bi 2 O 3 ; 3 to 15 wt% ZnO; 2 to 10 wt % B 2 O 3 ; 0.5 to 5 wt% SiO 2 ; 0.5 to 5 wt% Al 2 O 3 ; and 0.1 to 0.5 wt% of a compound selected from NaF and BaF 2 .
A system for preparing a dose of food, the system comprising: - a first sealed package containing a first ingredient and comprising a tray with a compartment containing the first ingredient , an upper opening delimited by a first rim , and a sealing element of the tray ; - a second sealed package containing a second ingredient ; and - at least one machine configured to supply hot water and steam for cooking and/or heating the first ingredient in accordance with first cooking and/or heating parameters and configured to supply steam for cooking and/or heating the second ingredient in accordance with second cooking and/or heating parameters, the machine and the tray being configured to be coupled to each other at the upper opening of the tray once the sealing element has been removed so as to perform the cooking/heating of the first ingredient in the tray . - a first sealed package containing a first ingredient and comprising a tray with a compartment containing the first ingredient , an upper opening delimited by a first rim , and a sealing element of the tray ; - a second sealed package containing a second ingredient ; and - at least one machine configured to supply hot water and steam for cooking and/or heating the first ingredient in accordance with first cooking and/or heating parameters and configured to supply steam for cooking and/or heating the second ingredient in accordance with second cooking and/or heating parameters,
A communication method, comprising: sending, by a network device, third information to a terminal device, wherein the third information comprises information used to indicate a transmission resource for sidelink data transmission and information used to indicate a transmission resource of a physical uplink control channel, PUCCH; and receiving (S201), by the network device, the PUCCH from the terminal device, wherein the PUCCH carries first information, and the first information is used to indicate reception status of sidelink data sent by the terminal device, wherein the PUCCH is used for determining a target hybrid automatic repeat request, HARQ, process identification, ID, associated with the PUCCH, and wherein the target HARQ process ID is determined according to the transmission resource of the PUCCH and a preset correspondence between transmission resources of multiple PUCCHs and HARQ process IDs. sending, by a network device, third information to a terminal device, wherein the third information comprises information used to indicate a transmission resource for sidelink data transmission and information used to indicate a transmission resource of a physical uplink control channel, PUCCH; and receiving (S201), by the network device, the PUCCH from the terminal device, wherein the PUCCH carries first information, and the first information is used to indicate reception status of sidelink data sent by the terminal device, wherein the PUCCH is used for determining a target hybrid automatic repeat request, HARQ, process identification, ID, associated with the PUCCH, and wherein the target HARQ process ID is determined according to the transmission resource of the PUCCH and a preset correspondence between transmission resources of multiple PUCCHs and HARQ process IDs.
Process for steel production comprising - production of sponge iron from iron oxide-containing starting material by direct reduction with reduction gas , wherein the reduction gas comprises at least 20% by volume of hydrogen H2, and - production of an iron melt having a carbon content of 1-5% by mass, wherein at least a sub-amount of the sponge iron produced from iron oxide-containing starting material by direct reduction with reduction gas is subjected to a treatment, wherein the treatment comprises: - energy input and addition of additives to produce a melt and a slag , wherein the energy input is effected substantially from electricity and the energy input effected from electricity is effected via an electric arc and via electric resistance heating, and wherein the slag has a basicity B2 defined as the ratio of calcium oxide to silicon dioxide CaO/SiO 2 in percent by mass of less than 1.3, preferably less than 1.25, particularly preferably less than 1.2, - adjustment of the carbon content in the melt , - reduction of at least a sub-amount of the iron oxides present in the sponge iron and wherein the slag is separated during and/or after the treatment and - use of the iron melt for production of steel. - production of sponge iron from iron oxide-containing starting material by direct reduction with reduction gas , wherein the reduction gas comprises at least 20% by volume of hydrogen H2, and - production of an iron melt having a carbon content of 1-5% by mass, wherein at least a sub-amount of the sponge iron produced from iron oxide-containing starting material by direct reduction with reduction gas is subjected to a treatment, wherein the treatment comprises: - energy input and addition of additives to produce a melt and a slag , - energy input and addition of additives to produce a melt and a slag , wherein the energy input is effected substantially from electricity and the energy input effected from electricity is effected via an electric arc and via electric resistance heating, and wherein the slag has a basicity B2 defined as the ratio of calcium oxide to silicon dioxide CaO/SiO 2 in percent by mass of less than 1.3, preferably less than 1.25, particularly preferably less than 1.2, - adjustment of the carbon content in the melt , - reduction of at least a sub-amount of the iron oxides present in the sponge iron - adjustment of the carbon content in the melt , - reduction of at least a sub-amount of the iron oxides present in the sponge iron and wherein the slag is separated during and/or after the treatment and - use of the iron melt for production of steel. - use of the iron melt for production of steel.
A sample inspection system comprising a beam former adapted to receive an electromagnetic radiation from a source of ionizing radiation to generate a primary beam , the primary beam being a beam of at least one of X-ray radiation and gamma-ray radiation; a beam modulator distal from the beam former to define an inspection volume for receiving a sample on a path of the primary beam ; wherein the beam modulator comprises a body forming an aperture ; an energy resolving detector and characterised in that it comprises: a collimator arranged between the beam modulator and the energy resolving detector , the collimator comprising a plurality of channels, each channel being adapted to receive diffracted or scattered radiation; wherein upon incidence of the primary beam onto the beam modulator , the beam modulator provides a reference beam of diffracted or scattered radiation , the energy resolving detector being arranged to detect the reference beam and radiation scattered or diffracted by the sample . a beam former adapted to receive an electromagnetic radiation from a source of ionizing radiation to generate a primary beam , the primary beam being a beam of at least one of X-ray radiation and gamma-ray radiation; a beam modulator distal from the beam former to define an inspection volume for receiving a sample on a path of the primary beam ; wherein the beam modulator comprises a body forming an aperture ; an energy resolving detector and characterised in that it comprises: a collimator arranged between the beam modulator and the energy resolving detector , the collimator comprising a plurality of channels, each channel being adapted to receive diffracted or scattered radiation; wherein upon incidence of the primary beam onto the beam modulator , the beam modulator provides a reference beam of diffracted or scattered radiation , the energy resolving detector being arranged to detect the reference beam and radiation scattered or diffracted by the sample . a collimator arranged between the beam modulator and the energy resolving detector , the collimator comprising a plurality of channels, each channel being adapted to receive diffracted or scattered radiation; wherein upon incidence of the primary beam onto the beam modulator , the beam modulator provides a reference beam of diffracted or scattered radiation , the energy resolving detector being arranged to detect the reference beam and radiation scattered or diffracted by the sample .
A device for producing a magnetically induced visual effect, the device comprising: a printing unit arranged to print with a coating composition containing orientable magnetic particles an image on a first side of a substrate ; an orientation means in the form of a cylindrical body comprising at least one magnetic field generating element , for orienting the magnetic particles in the coating composition of the printed image ; a substrate-guiding system arranged to hold a second side of the substrate in contact with the orientation means; a photocuring unit comprising a radiation source arranged with respect to the orientation means so as to irradiate the image printed on the first side of the substrate to cure the coating composition of the image while the second side of the substrate is still in contact with the said orientation means; characterized in that the radiation source comprises a light emitting Diode (LED) VIS- or a light emitting Diode (LED) UV-lamp ; and the photocuring unit is configured such that its emission of thermal radiation energy towards the orientation means is limited such as to not heat the orientation means and its at least one magnetic field generating element to an average temperature (T1) exceeding 100°C. a printing unit arranged to print with a coating composition containing orientable magnetic particles an image on a first side of a substrate ; an orientation means in the form of a cylindrical body comprising at least one magnetic field generating element , for orienting the magnetic particles in the coating composition of the printed image ; a substrate-guiding system arranged to hold a second side of the substrate in contact with the orientation means; a photocuring unit comprising a radiation source arranged with respect to the orientation means so as to irradiate the image printed on the first side of the substrate to cure the coating composition of the image while the second side of the substrate is still in contact with the said orientation means; characterized in that the radiation source comprises a light emitting Diode (LED) VIS- or a light emitting Diode (LED) UV-lamp ; and the photocuring unit is configured such that its emission of thermal radiation energy towards the orientation means is limited such as to not heat the orientation means and its at least one magnetic field generating element to an average temperature (T1) exceeding 100°C.
A medical plug delivery system , comprising: a medical plug holding device that includes a housing defining a lumen that extends from a proximal end to a distal end of the medical plug holding device, wherein the housing comprises a distal connector configured to connect to a distal medical device in communication with a patient; characterized by an elongate medical plug (200; 200'; 200"; 200"') that is substantially cylindrical in shape and is disposed within the lumen of the medical plug holding device , wherein the elongate medical plug defines a channel (210; 210'; 210"; 210'") that extends from a proximal end to a distal end of the elongate medical plug , wherein said channel provides a fluid bypass pathway. a medical plug holding device that includes a housing defining a lumen that extends from a proximal end to a distal end of the medical plug holding device, wherein the housing comprises a distal connector configured to connect to a distal medical device in communication with a patient; characterized by an elongate medical plug (200; 200'; 200"; 200"') that is substantially cylindrical in shape and is disposed within the lumen of the medical plug holding device , wherein the elongate medical plug defines a channel (210; 210'; 210"; 210'") that extends from a proximal end to a distal end of the elongate medical plug , wherein said channel provides a fluid bypass pathway.
Modular system of photobioreactors for algae cultivation comprising at least two photobioreactors each of which comprises a metallic structure in turn comprising at least two tubular sections connected by one of its ends, wherein inside said tubular sections the algae cultivation is arranged and wherein between said tubular sections , the system comprises LED-type lights and reflector bodies that reflect the light from the LED-type lighting and transmit it to the tubular sections wherein the cultivation of algae is disposed, passing through their side walls characterized in that the system further comprises another tubular section disposed between said tubular sections , wherein the other tubular section comprises the LED-type lights and the reflector bodies .
A wound dressing apparatus comprising: a wound contact layer comprising a proximal wound-facing face and a distal face, wherein the proximal wound-facing face is configured to be positioned in contact with a wound; at least one absorbent layer over the wound contact layer; an electronics unit comprising: a negative pressure source unit comprising a negative pressure source , inlet protection mechanism , and an outlet or exhaust mechanism ; a plurality of sensors positioned on a printed circuit board; wherein the inlet protection mechanism comprises a first recess configured to be in fluid communication with a first sensor on the printed circuit board and the outlet or exhaust mechanism comprises a second recess configured to be in fluid communication with a second sensor on the printed circuit board; and wherein the at least one absorbent layer is configured to be in fluid communication with the electronics unit; and a cover layer configured to cover and form a seal over the wound contact layer, the at least one absorbent layer, and the electronics unit. a wound contact layer comprising a proximal wound-facing face and a distal face, wherein the proximal wound-facing face is configured to be positioned in contact with a wound; at least one absorbent layer over the wound contact layer; an electronics unit comprising: a negative pressure source unit comprising a negative pressure source , inlet protection mechanism , and an outlet or exhaust mechanism ; a plurality of sensors positioned on a printed circuit board; wherein the inlet protection mechanism comprises a first recess configured to be in fluid communication with a first sensor on the printed circuit board and the outlet or exhaust mechanism comprises a second recess configured to be in fluid communication with a second sensor on the printed circuit board; and a negative pressure source unit comprising a negative pressure source , inlet protection mechanism , and an outlet or exhaust mechanism ; a plurality of sensors positioned on a printed circuit board; wherein the inlet protection mechanism comprises a first recess configured to be in fluid communication with a first sensor on the printed circuit board and the outlet or exhaust mechanism comprises a second recess configured to be in fluid communication with a second sensor on the printed circuit board; and wherein the at least one absorbent layer is configured to be in fluid communication with the electronics unit; and a cover layer configured to cover and form a seal over the wound contact layer, the at least one absorbent layer, and the electronics unit.
A toaster comprising heating elements in a toasting cavity , a temperature sensor and a timer adapted to vary the length of the toasting cycle, the toaster comprising a control unit in a PCB cavity adapted to take the measurement of the temperature after or upon actuation of the toaster, wherein a base length for the toasting cycle is defined in dependence on a browning setting and the base length of the toasting cycle is adjusted to provide an actual length of the toasting cycle in dependence at least in part on the detected temperature, characterised in that the temperature sensor is adapted to measure the temperature in the PCB cavity and the adjustment to the base length of the toasting cycle is made in accordance with the formula: Δ t = T 1 − a b _ where Δ t is change in cycle length and T 1 the measured temperature where a is in the range of 15-25 C and b is in the range of -1 to -1.8 dependent on toaster configuration. characterised in that the temperature sensor is adapted to measure the temperature in the PCB cavity and the adjustment to the base length of the toasting cycle is made in accordance with the formula: Δ t = T 1 − a b _ where Δ t is change in cycle length and T 1 the measured temperature where a is in the range of 15-25 C and b is in the range of -1 to -1.8 dependent on toaster configuration.