mhurhangee/patent-ind-claim-en huggingface dataset:
Substrate for applications in the fields of radio-frequency electronics and microelectronics, comprising: - a base substrate made of monocrystalline silicon having a resistivity greater than 100 or 1000 ohm.cm; - a single carbon layer which is arranged on and is directly in contact with the base substrate , the carbon layer having a thickness strictly between 1 nm and 5 nm; - an electrical insulator layer which is arranged on the carbon layer ; - a lithium tantalate or lithium niobate device layer which is arranged on the insulator layer . - a base substrate made of monocrystalline silicon having a resistivity greater than 100 or 1000 ohm.cm; - a single carbon layer which is arranged on and is directly in contact with the base substrate , the carbon layer having a thickness strictly between 1 nm and 5 nm; - an electrical insulator layer which is arranged on the carbon layer ; - a lithium tantalate or lithium niobate device layer which is arranged on the insulator layer .
A weather radar system comprising: a waveform generator configured to generate a first waveform centered around a first frequency and a second waveform centered around the first frequency; a modulator configured to modulate the first waveform to include a first non-linear frequency modulation and modulate the second waveform to include a second non-linear frequency modulation, wherein the first and second non-linear frequency modulations are different; one or more polarizers configured to polarize the first waveform to include a first polarization state and polarize the second waveform to include a second polarization state, wherein the first and second polarization states are orthogonal; one or more amplifiers configured to amplify the first waveform and the second waveform; a first transmitter configured to transmit the first waveform as a first electromagnetic pulse into an environmental region; a second transmitter configured to transmit the second waveform as a second electromagnetic pulse into the environmental region, wherein the second electromagnetic pulse is transmitted within 100 nanoseconds of the completion of the transmission of the first electromagnetic pulse; a receiver configured to receive an electromagnetic signal reflected from within the environmental region; and a processor configured to process the received electromagnetic signal using pulse compression techniques and determine a radial velocity of an environmental object of interest within the environmental region based at least in part on the processed electromagnetic signal. a waveform generator configured to generate a first waveform centered around a first frequency and a second waveform centered around the first frequency; a modulator configured to modulate the first waveform to include a first non-linear frequency modulation and modulate the second waveform to include a second non-linear frequency modulation, wherein the first and second non-linear frequency modulations are different; one or more polarizers configured to polarize the first waveform to include a first polarization state and polarize the second waveform to include a second polarization state, wherein the first and second polarization states are orthogonal; one or more amplifiers configured to amplify the first waveform and the second waveform; a first transmitter configured to transmit the first waveform as a first electromagnetic pulse into an environmental region; a second transmitter configured to transmit the second waveform as a second electromagnetic pulse into the environmental region, wherein the second electromagnetic pulse is transmitted within 100 nanoseconds of the completion of the transmission of the first electromagnetic pulse; a receiver configured to receive an electromagnetic signal reflected from within the environmental region; and a processor configured to process the received electromagnetic signal using pulse compression techniques and determine a radial velocity of an environmental object of interest within the environmental region based at least in part on the processed electromagnetic signal.
A method of selecting a patient for combination therapy comprising entinostat and pembrolizumab comprising: providing a peripheral blood sample obtained from the patient, wherein the patient is diagnosed with a cancer; measuring the number of cells in the peripheral blood sample which are CD14-positive, HLA-DR-high, and CD16-negative; measuring the number of total peripheral blood mononuclear cells in the peripheral blood sample; and selecting the patient for administration of the combination therapy if the percentage of the CD14-positive, HLA-DR-high, and CD16-negative cells relative to total peripheral blood mononuclear cells is greater than a pre-determined percentage. providing a peripheral blood sample obtained from the patient, wherein the patient is diagnosed with a cancer; measuring the number of cells in the peripheral blood sample which are CD14-positive, HLA-DR-high, and CD16-negative; measuring the number of total peripheral blood mononuclear cells in the peripheral blood sample; and selecting the patient for administration of the combination therapy if the percentage of the CD14-positive, HLA-DR-high, and CD16-negative cells relative to total peripheral blood mononuclear cells is greater than a pre-determined percentage.
A process for producing 2,3,3,3-tetrafluoropropene and 1,1-difluoroethylene from chlorodifluoromethane, chloromethane and tetrafluoroethylene, which comprises (a) a step of supplying the chlorodifluoromethane, the chloromethane and the tetrafluoroethylene to a reactor, as preliminarily mixed or separately, (b) a step of supplying a heat medium to the reactor, and (c) a step of bringing the heat medium in contact with the chlorodifluoromethane, the chloromethane and the tetrafluoroethylene in the reactor to form the 2,3,3,3-tetrafluoropropene and the 1,1-difluoroethylene, wherein the heat medium is at least one member selected from steam, nitrogen and carbon dioxide, and wherein the temperature in the reactor in the step (c) is adjusted to be from 400 to 1,200°C. (a) a step of supplying the chlorodifluoromethane, the chloromethane and the tetrafluoroethylene to a reactor, as preliminarily mixed or separately, (b) a step of supplying a heat medium to the reactor, and (c) a step of bringing the heat medium in contact with the chlorodifluoromethane, the chloromethane and the tetrafluoroethylene in the reactor to form the 2,3,3,3-tetrafluoropropene and the 1,1-difluoroethylene,
An electrical connector comprising a casing provided with a front opening and adapted to receive at the rear a female contacts body in which a plug inserted in the front opening can engage; the female contacts of said female contacts body being protected by a pair of shutters , which prevent access to said female contacts when said shutters are in the closed position; said connector comprising a locking mechanism which controls the opening of the shutters and the locking of the plug when it is inserted in the female contacts body ; said electrical connector being characterized in that it comprises a slider acting on a first end of a rocking arm ; said rocking arm being pivoted in a fulcrum in said casing and having a second end which acts on a locking frame adapted to lock and unlock the movement of said shutters ; said slider also performing the function of locking said plug in the inserted position during vehicle charging; said slider having a free end which is opposite to the end that acts on said first end of said rocking arm ; said free end being able to engage a seat formed in the body of said plug , preventing its extraction.
A seatbelt airbag comprising: an inflation chamber inflatable from an undeployed state to a deployed state, the inflation chamber comprising a first inflation chamber and a second inflation chamber ; an actuator unit for slidably connecting the airbag to a seatbelt such that the first inflation chamber is positioned above the second inflation chamber; and a flow director for directing inflation gas into the inflation chamber to inflate the inflation chamber, the flow director configured to direct the inflation gas into the first inflation chamber prior to the second inflation chamber; wherein the actuator unit is located in the inflation chamber, the actuator unit comprising: an inflator ; and an actuator configured to actuate the inflator. an inflation chamber inflatable from an undeployed state to a deployed state, the inflation chamber comprising a first inflation chamber and a second inflation chamber ; an actuator unit for slidably connecting the airbag to a seatbelt such that the first inflation chamber is positioned above the second inflation chamber; and a flow director for directing inflation gas into the inflation chamber to inflate the inflation chamber, the flow director configured to direct the inflation gas into the first inflation chamber prior to the second inflation chamber; wherein the actuator unit is located in the inflation chamber, the actuator unit comprising: an inflator ; and an actuator configured to actuate the inflator. an inflator ; and an actuator configured to actuate the inflator.
A system for performing loco-regional perfusion within the heart of a patient when fluidly coupled thereto, the system comprising: a first drug-delivery catheter adapted for insertion into the right coronary artery of the heart; a second drug-delivery catheter adapted for insertion into the left main coronary artery of the heart: a collection catheter adapted for insertion into the coronary sinus of the heart; a membrane oxygenation device fluidly coupled to the first drug-delivery catheter, the second drug-delivery catheter, the collection catheter, and an oxygen source, wherein the first drug-delivery catheter, the second drug-delivery catheter, the collection catheter, and the membrane oxygenation device together form a closed circuit through the heart that is isolated from the patient's systemic circulation when the first drug-delivery catheter is inserted into the right coronary artery, the second drug-delivery catheter is inserted into the left main coronary artery, and the collection catheter is inserted into the coronary sinus; and a pump configured to drive fluid flow through the first drug-delivery catheter and the second drug-delivery catheter. a first drug-delivery catheter adapted for insertion into the right coronary artery of the heart; a second drug-delivery catheter adapted for insertion into the left main coronary artery of the heart: a collection catheter adapted for insertion into the coronary sinus of the heart; a membrane oxygenation device fluidly coupled to the first drug-delivery catheter, the second drug-delivery catheter, the collection catheter, and an oxygen source, wherein the first drug-delivery catheter, the second drug-delivery catheter, the collection catheter, and the membrane oxygenation device together form a closed circuit through the heart that is isolated from the patient's systemic circulation when the first drug-delivery catheter is inserted into the right coronary artery, the second drug-delivery catheter is inserted into the left main coronary artery, and the collection catheter is inserted into the coronary sinus; and a pump configured to drive fluid flow through the first drug-delivery catheter and the second drug-delivery catheter.
Method for managing a geographical map , wherein the method comprises the following steps: - acquiring a map that comprises one or more first objects , - wherein each first object is assigned a unique identifier ; - acquiring a second object ; - wherein the first objects and the second object are each assigned at least one item of object information ; - determining a third object that, out of the first objects , has the greatest similarity to the second object , wherein the similarity between one of the first objects and the second object is determined in relation to similarities between items of object information corresponding to one another; - assigning the identifier of the third object to the second object if the determined greatest similarity exceeds a first predetermined level, and the method is characterized by the following step: - determining a new unique identifier and assigning the new identifier to the second object if the determined similarity between the second object and the third object is below a second predetermined level, wherein the second level is smaller than the first level or the same as the first level. - acquiring a map that comprises one or more first objects , - wherein each first object is assigned a unique identifier ; - acquiring a second object ; - wherein the first objects and the second object are each assigned at least one item of object information ; - determining a third object that, out of the first objects , has the greatest similarity to the second object , wherein the similarity between one of the first objects and the second object is determined in relation to similarities between items of object information corresponding to one another; - assigning the identifier of the third object to the second object if the determined greatest similarity exceeds a first predetermined level, and - determining a new unique identifier and assigning the new identifier to the second object if the determined similarity between the second object and the third object is below a second predetermined level, wherein the second level is smaller than the first level or the same as the first level.
A wireless device (400A-C, 600A-B, 700A-B), comprising: a substrate comprising a pair of larger faces, a first and second edge opposite to one another and a third and fourth edge that join respective ends of the first and the second edges; top and bottom grounded conductive layers formed on respective larger faces of the substrate ; at least one conductive wall (130-1, 130-2) formed between the top and bottom grounded conductive layers , and configured to form a short-circuit between the top and bottom grounded conductive layers , wherein the substrate and the at least one conductive wall are configured to form a plurality of cavity antennas (100A- B, 140-1, 140-2, 140-3) configured to operate in accordance with resonance modes at specific, respective frequencies, and each of the plurality of cavity antennas comprises at least two edges not covered by a conductive layer, wherein the at least one conductive wall includes a first conductive wall (130-2) that extends from the first to the second edge of the substrate, wherein the at least one conductive wall further includes a second conductive wall (130-1) that extends from the third or fourth edge of the substrate, wherein the first conductive wall (130-2) and the second conductive wall (103-1) intersect; and an antenna feed (150-1, 150-2, 150-3, 350, 450, 720, 750-1) coupled to at least one of the top and bottom grounded conductive layers of each respective one of the plurality of cavity antennas, the antenna feed being configured to feed radio signals to each respective cavity antenna. a substrate comprising a pair of larger faces, a first and second edge opposite to one another and a third and fourth edge that join respective ends of the first and the second edges; top and bottom grounded conductive layers formed on respective larger faces of the substrate ; at least one conductive wall (130-1, 130-2) formed between the top and bottom grounded conductive layers , and configured to form a short-circuit between the top and bottom grounded conductive layers , wherein the substrate and the at least one conductive wall are configured to form a plurality of cavity antennas (100A- B, 140-1, 140-2, 140-3) configured to operate in accordance with resonance modes at specific, respective frequencies, and each of the plurality of cavity antennas comprises at least two edges not covered by a conductive layer, wherein the at least one conductive wall includes a first conductive wall (130-2) that extends from the first to the second edge of the substrate, wherein the at least one conductive wall further includes a second conductive wall (130-1) that extends from the third or fourth edge of the substrate, wherein the first conductive wall (130-2) and the second conductive wall (103-1) intersect; and an antenna feed (150-1, 150-2, 150-3, 350, 450, 720, 750-1) coupled to at least one of the top and bottom grounded conductive layers of each respective one of the plurality of cavity antennas, the antenna feed being configured to feed radio signals to each respective cavity antenna.
A supporting device for a pole and footrest of a stool , comprising: - a lower body that is joined to a complementary upper body by securing means, wherein the lower body in turn comprises an upper part and a lower part , characterized in that said supporting device comprises: ∘ the upper part comprises a recess configured for inserting the pole and grooves slots , disposed in lateral walls of said upper part , configured for coupling spokes that act as a support for footrest , - the upper body comprises lateral walls and is perforated by a through-hole aligned with the recess for inserting the pole ; wherein said supporting device is configured to be placed on a base of the stool and support the pole and footrest of that stool . - a lower body that is joined to a complementary upper body by securing means, wherein the lower body in turn comprises an upper part and a lower part , characterized in that said supporting device comprises: ∘ the upper part comprises a recess configured for inserting the pole and grooves slots , disposed in lateral walls of said upper part , configured for coupling spokes that act as a support for footrest , - the upper body comprises lateral walls and is perforated by a through-hole aligned with the recess for inserting the pole ; wherein said supporting device is configured to be placed on a base of the stool and support the pole and footrest of that stool .
Conveying device for conveying a fluid stream, with: - a mechanical unit which includes a movable conveying element , and - an electrical unit which comprises a housing as well as electronic elements arranged in the housing , wherein the mechanical unit and the electrical unit are detachably connected to one another, and wherein the electrical unit includes cooling fins which are arranged in such a way that they project into a fluid stream generated by the movable conveying element of the mechanical unit in operation of the conveying device , the cooling fins of the electrical unit projecting, through a recess formed in a housing of the mechanical unit , into the fluid stream generated by the movable conveying element of the mechanical unit in operation of the conveying device in such a manner that the cooling fins are removable from the recess when the electrical unit is being detached from the mechanical unit , characterised in that the mechanical unit includes an interface element which is adapted to interact with a complementary interface element of the electrical unit , in order to bring about an electrical coupling of the mechanical unit to the electrical unit , wherein the interface element of the electrical unit includes the cooling fins . - a mechanical unit which includes a movable conveying element , and - an electrical unit which comprises a housing as well as electronic elements arranged in the housing ,
An airfoil comprising: an airfoil body extending between a leading edge and a trailing edge , a suction side and a pressure side , and a first end and a second end ; at least one fitting located on at least one of the first end and the second end , the at least one fitting including at least one mounting lug ; and at least one shroud adhesively bonded to the at least one fitting ; characterised in that : the at least one fitting includes a flange (F), and the at least one shroud is adhesively bonded to the flange, and the flange (F) includes a rabbet , and the at least one shroud is adhesively bonded to the rabbet . an airfoil body extending between a leading edge and a trailing edge , a suction side and a pressure side , and a first end and a second end ; at least one fitting located on at least one of the first end and the second end , the at least one fitting including at least one mounting lug ; and at least one shroud adhesively bonded to the at least one fitting ; characterised in that : the at least one fitting includes a flange (F), and the at least one shroud is adhesively bonded to the flange, and the flange (F) includes a rabbet , and the at least one shroud is adhesively bonded to the rabbet .
A method for producing a 3D item by means of fused deposition modelling, the method comprising a 3D printing stage comprising layer-wise depositing an extrudate comprising 3D printable material , to provide the 3D item comprising 3D printed material , wherein the 3D item comprises layers of 3D printed material , wherein the method further comprises controlling a first temperature T 1 of the 3D printable material within a first temperature range, wherein the 3D printable material comprises: - a thermoplastic host material , and - a dopant material in the range of 1-20 vol.%, the dopant material comprising polymeric flake-like particles having a metal coating, wherein the 3D printable material has an optical property that irreversibly changes from a low-temperature optical property to a high-temperature optical property when increasing a temperature of the 3D printable material over a change temperature T c , the optical property being selected from the group consisting of reflection, transmission, luminescence, absorption, and color, wherein the change temperature T c is within the first temperature range, wherein during at least a first part of the 3D printing stage the first temperature T 1 is below the change temperature T c , and wherein during at least a second part of the 3D printing stage the first temperature T 1 is above the change temperature T c . wherein the method further comprises controlling a first temperature T 1 of the 3D printable material within a first temperature range, wherein the 3D printable material comprises: - a thermoplastic host material , and - a dopant material in the range of 1-20 vol.%, the dopant material comprising polymeric flake-like particles having a metal coating, - a thermoplastic host material , and - a dopant material in the range of 1-20 vol.%, the dopant material comprising polymeric flake-like particles having a metal coating, wherein the 3D printable material has an optical property that irreversibly changes from a low-temperature optical property to a high-temperature optical property when increasing a temperature of the 3D printable material over a change temperature T c , the optical property being selected from the group consisting of reflection, transmission, luminescence, absorption, and color, wherein the change temperature T c is within the first temperature range, wherein during at least a first part of the 3D printing stage the first temperature T 1 is below the change temperature T c , and wherein during at least a second part of the 3D printing stage the first temperature T 1 is above the change temperature T c .