mhurhangee/patent-ind-claim-en huggingface dataset:
A machine for making liquid or semi-liquid food products comprising: - a frame ; - a first container containing a liquid or semi-liquid base product; - a second container defining a processing chamber for processing a base mixture made up of the liquid or semi-liquid base product and a gas; - a stirrer mounted inside the second container ; - thermal treatment means associated with the second container , acting in conjunction with the stirrer to convert the base mixture inside the second container into a finished liquid or semiliquid product; - a connecting duct connecting the first container to the second container and configured to connect the first container to the second container in such a way as to allow the base mixture to be transferred to the second container ; - a dispenser connected to the second container to allow dispensing the finished product; - at least one regulating device for regulating the supply of base mixture to the second container to regulate the supply pressure or flow rate of one between, or both, the liquid or semi-liquid base product and the gas supplied through the duct ; - a control and drive unit connected to the regulating device to drive the regulating device the machine being characterized in that the regulating device comprises a rotary element which is provided with a base portion and a plurality of radial blades extending from the base portion , which is mounted inside the first container to rotate about a vertical axis and which is configured to move the liquid or semi-liquid base product and to feed the liquid or semi-liquid base product into the connecting duct by effect of the movement and wherein the control unit is configured to drive the rotary element in rotation at different operating speeds so that the radial blades impart to the base liquid different motion configurations, that is to say, different operating speeds. - a frame ; - a first container containing a liquid or semi-liquid base product; - a second container defining a processing chamber for processing a base mixture made up of the liquid or semi-liquid base product and a gas; - a stirrer mounted inside the second container ; - thermal treatment means associated with the second container , acting in conjunction with the stirrer to convert the base mixture inside the second container into a finished liquid or semiliquid product; - a connecting duct connecting the first container to the second container and configured to connect the first container to the second container in such a way as to allow the base mixture to be transferred to the second container ; - a dispenser connected to the second container to allow dispensing the finished product; - at least one regulating device for regulating the supply of base mixture to the second container to regulate the supply pressure or flow rate of one between, or both, the liquid or semi-liquid base product and the gas supplied through the duct ; - a control and drive unit connected to the regulating device to drive the regulating device
An immunoglobulin fusion protein comprising a therapeutic peptide connected to a modified palivizumab antigen binding domain configured to have reduced binding to antigen RSV-F as compared to an unmodified palivizumab antigen binding domain; wherein the modified palivizumab antigen binding domain comprises a heavy chain variable region of SEQ ID NO: 13 wherein the heavy chain CDR3 is selected from SEQ ID NOS: 79 and 80, and a light chain variable region of SEQ ID NO: 9 wherein the light chain CDR3 comprises at least 4 consecutive amino acids of SEQ ID NO: 91; and wherein the unmodified palivizumab antigen binding domain comprises the heavy chain variable region of SEQ ID NO: 13, and the light chain variable region of SEQ ID NO: 9. wherein the modified palivizumab antigen binding domain comprises a heavy chain variable region of SEQ ID NO: 13 wherein the heavy chain CDR3 is selected from SEQ ID NOS: 79 and 80, and a light chain variable region of SEQ ID NO: 9 wherein the light chain CDR3 comprises at least 4 consecutive amino acids of SEQ ID NO: 91; and wherein the unmodified palivizumab antigen binding domain comprises the heavy chain variable region of SEQ ID NO: 13, and the light chain variable region of SEQ ID NO: 9.
Scaffolding anchoring device for anchoring a part of a scaffolding on a construction, comprising a single-piece base body tapering at least sectionally from a first boundary surface to a second boundary surface opposite to the first boundary surface , wherein the first boundary surface forms an abutment surface for the abutment of the base body on a wall of the construction, and a first connecting means, which is connected with the base body for the connection of the base body to the wall of the construction, and a second connecting means for the connection of the part of the scaffolding to the base body , wherein the first connecting means comprises a threaded element having a threaded portion , which can be screwed into a reception means provided on the construction-side, in particular a plug or similar, characterised in that the base body is manufactured from a plastic, in particular from a reinforced plastic, and that the threaded element is sectionally injection-moulded into the base body .
A hydrogenated block copolymer (P) obtained by hydrogenation of a coupled polymer represented by the following formula : (A-B)n-X wherein A represents a polymer block comprising a vinyl aromatic monomer unit as a main component, B represents a polymer block comprising a conjugated diene monomer unit as a main component, n is an integer of 1 or greater, and X represents a residue of a coupling agent or a residue of a polymerization initiator, wherein the content of the vinyl aromatic monomer unit in the hydrogenated block copolymer (P) is 10 mass% to 40 mass%, the peak top molecular weight of a diblock component corresponding to (A-B) in the formula is 160,000 to 225,000, the proportion of a dibranched component corresponding to a case in which n is 2 in the formula is 10 mass% to 30 mass% based on the total hydrogenated block copolymer (P), the proportion of a tribranched component corresponding to a case in which n is 3 in the formula is 40 mass% to 70 mass% based on the total hydrogenated block copolymer (P), and the ratio M (mass of tribranched component/mass of dibranched component) of the tribranched component to the dibranched component is 2 or more, wherein the content of the vinyl aromatic monomer unit in the hydrogenated block copolymer (P), the peak top molecular weight of a diblock component, the proportion of a dibranched component, the proportion of a tribranched component, the ratio M (mass of tribranched component/mass of dibranched component) of the tribranched component to the dibranched component are all measured according to the methods as disclosed in the description. the content of the vinyl aromatic monomer unit in the hydrogenated block copolymer (P) is 10 mass% to 40 mass%, the peak top molecular weight of a diblock component corresponding to (A-B) in the formula is 160,000 to 225,000, the proportion of a dibranched component corresponding to a case in which n is 2 in the formula is 10 mass% to 30 mass% based on the total hydrogenated block copolymer (P), the proportion of a tribranched component corresponding to a case in which n is 3 in the formula is 40 mass% to 70 mass% based on the total hydrogenated block copolymer (P), and the ratio M (mass of tribranched component/mass of dibranched component) of the tribranched component to the dibranched component is 2 or more, wherein the content of the vinyl aromatic monomer unit in the hydrogenated block copolymer (P), the peak top molecular weight of a diblock component, the proportion of a dibranched component, the proportion of a tribranched component, the ratio M (mass of tribranched component/mass of dibranched component) of the tribranched component to the dibranched component are all measured according to the methods as disclosed in the description.
A high-pressure processing system for processing a layer on a substrate , the system comprising: a first chamber ; a support to hold the substrate in the first chamber ; a second chamber adjacent the first chamber ; a foreline to remove gas from the second chamber ; a vacuum processing system configured to lower a pressure within the second chamber to near vacuum; a valve assembly between the first chamber and the second chamber to isolate the pressure within the first chamber from the pressure within the second chamber ; a gas delivery system configured to introduce a gas into the first chamber and to increase the pressure within the first chamber to at least 10 atmospheres while the gas is in the first chamber and while the first chamber is isolated from the second chamber ; a controller configured to operate the gas delivery system and the valve assembly ; an exhaust system comprising an exhaust line to remove gas from the first chamber ; and a containment enclosure surrounding a portion of the gas delivery system and the exhaust line , the containment enclosure configured to divert gas leaking from the portion of the gas delivery system and the exhaust line to the foreline . a first chamber ; a support to hold the substrate in the first chamber ; a second chamber adjacent the first chamber ; a foreline to remove gas from the second chamber ; a vacuum processing system configured to lower a pressure within the second chamber to near vacuum; a valve assembly between the first chamber and the second chamber to isolate the pressure within the first chamber from the pressure within the second chamber ; a gas delivery system configured to introduce a gas into the first chamber and to increase the pressure within the first chamber to at least 10 atmospheres while the gas is in the first chamber and while the first chamber is isolated from the second chamber ; a controller configured to operate the gas delivery system and the valve assembly ; an exhaust system comprising an exhaust line to remove gas from the first chamber ; and a containment enclosure surrounding a portion of the gas delivery system and the exhaust line , the containment enclosure configured to divert gas leaking from the portion of the gas delivery system and the exhaust line to the foreline .
Method for producing synthesis gas by gasifying a biomass in a fluidized bed, the biomass being supplied to a fluidized-bed gasifier , characterized in that - the synthesis gas is brought into contact with alkali-binding getter ceramics which are configured to eliminate vaporous alkalis, - the getter ceramics are added discontinuously, and - the getter ceramics accumulating in a hot gas filter connected downstream of the fluidized-bed gasifier are returned to the fluidized-bed gasifier . - the synthesis gas is brought into contact with alkali-binding getter ceramics which are configured to eliminate vaporous alkalis, - the getter ceramics are added discontinuously, and - the getter ceramics accumulating in a hot gas filter connected downstream of the fluidized-bed gasifier are returned to the fluidized-bed gasifier .
A bunkering marine vessel comprising: a buoyant vessel having an elongated hull with a first hull side and an opposing second hull side , a first hull end and a second hull end and defining a centerline plane extending from the first hull end to the second hull end between the two hull sides substantially bisecting the hull between the two hull sides and an amidships plane defined between the two hull ends substantially bisecting the hull between the two hull ends , with a keel between the first and second hull ends along the centerline plane ; an upper deck extending between the hull sides so as to define a volume within the hull ; at least one main bunkering fuel storage tank within the hull ; at least two hull decks below the upper deck , the at least two hull decks extending between the hull sides , the main bunkering fuel storage tank comprising a pressure vessel of a height extending through at least one hull deck ; and a multi-deck, elongated, enclosed accommodation structure , the accommodation structure having at least two vertically spaced apart, enclosed decks , with a bridge deck and a bridge mounted on top of the accommodation structure , the accommodation structure extending along a portion of the length of the second hull side and across the amidships plane so as to be equidistant between the first hull end and the second hull end , the accommodation structure and the bridge deck spaced apart from the centerline plane . a buoyant vessel having an elongated hull with a first hull side and an opposing second hull side , a first hull end and a second hull end and defining a centerline plane extending from the first hull end to the second hull end between the two hull sides substantially bisecting the hull between the two hull sides and an amidships plane defined between the two hull ends substantially bisecting the hull between the two hull ends , with a keel between the first and second hull ends along the centerline plane ; an upper deck extending between the hull sides so as to define a volume within the hull ; at least one main bunkering fuel storage tank within the hull ; at least two hull decks below the upper deck , the at least two hull decks extending between the hull sides , the main bunkering fuel storage tank comprising a pressure vessel of a height extending through at least one hull deck ; and a multi-deck, elongated, enclosed accommodation structure , the accommodation structure having at least two vertically spaced apart, enclosed decks , with a bridge deck and a bridge mounted on top of the accommodation structure , the accommodation structure extending along a portion of the length of the second hull side and across the amidships plane so as to be equidistant between the first hull end and the second hull end , the accommodation structure and the bridge deck spaced apart from the centerline plane .
Lighting body comprising a lamp head and a lamp socket , wherein a. the lamp head and lamp socket are connected so as to be movable relative to one another, wherein b. the lamp head can be fixed relative to the lamp socket in a first position and at least one second position, wherein i. in the first position an initial electrical operating condition is established; and ii. in the at least one second position a second electrical operating condition is established, whereby in the first and in the second position the lamp is activated, characterized in that c. a third position is provided, in which the lamp head is not fixed on the lamp socket , whereby in this third position the lamp head can be placed on the lamp socket and separated from it, and whereby in the third position the lighting body is not in any electrical operating state, i.e. deactivated. a. the lamp head and lamp socket are connected so as to be movable relative to one another, wherein b. the lamp head can be fixed relative to the lamp socket in a first position and at least one second position, wherein i. in the first position an initial electrical operating condition is established; and ii. in the at least one second position a second electrical operating condition is established, whereby in the first and in the second position the lamp is activated, characterized in that i. in the first position an initial electrical operating condition is established; and ii. in the at least one second position a second electrical operating condition is established, whereby in the first and in the second position the lamp is activated, c. a third position is provided, in which the lamp head is not fixed on the lamp socket ,
Radiator arrangement comprising a radiator (2-4) having a flow channel and a flow connection connected to the flow channel and a return connection , wherein the radiator arrangement further comprises a connecting channel which is arranged between the flow connection and the return connection , and pressure regulating means configured for controlling a flow pressure in the flow channel on basis of a return pressure in the connecting channel , wherein the pressure regulating means are arranged in the connecting channel , so that they are built in and hidden in the radiator (2-4), the pressure regulating means forming a seal between the connecting channel and the flow connection , and the pressure regulating means comprise a pressure responsive element loaded by the return pressure in the connecting channel .
An electrochemical double-layer capacitor comprising: a bottom substrate having a first cavity ; a first plurality of substantially aligned carbon nanotubes vertically disposed within the first cavity ; a top substrate having a second cavity facing the first cavity ; a second plurality of substantially aligned carbon nanotubes vertically disposed within the second cavity ; and a micropackage , wherein the micropackage defines a gap between the first plurality of substantially aligned carbon nanotubes and the second plurality of substantially aligned carbon nanotubes , the gap having a gap height that prevents contact between the first plurality of substantially aligned carbon nanotubes and the second plurality of substantially aligned carbon nanotubes , wherein the gap height is from about 10 microns to about 50 microns; wherein the space between the two sides of the capacitor includes at least a portion of open space not occupied by a separator. a bottom substrate having a first cavity ; a first plurality of substantially aligned carbon nanotubes vertically disposed within the first cavity ; a top substrate having a second cavity facing the first cavity ; a second plurality of substantially aligned carbon nanotubes vertically disposed within the second cavity ; and
A method for realizing beam alignment, comprising: in response to a reception of first signals with a signal-to-noise ratio greater than or equal to a preset threshold through two analog subarrays with a same polarization mode by adopting receiving beams having a same beam direction, acquiring the first signals received by the two analog subarrays, and a difference between phase centers of the two analog subarrays ; keeping the beam directions of the receiving beams of the two analog subarrays unchanged, performing a first change of the difference between phase centers of the two analog subarrays, and acquiring second signals received by the two analog subarrays and a difference between the phase centers after the first change of the two analog subarrays ; keeping the beam directions of the receiving beams of the two analog subarrays unchanged, performing a second change of the difference between phase centers of the two analog subarrays, and acquiring third signals received by the two analog subarrays and a difference between the phase centers after the second change of the two analog subarrays ; and estimating a Direction Of Arrival (DOA) of a receiving signal, according to the first signals, the second signals and the third signals received by the two analog subarrays, the difference between phase centers before the first change, the difference between phase centers after the first change and the difference between phase centers after the second change; and directing a center of a receiving beam to the estimated DOA . in response to a reception of first signals with a signal-to-noise ratio greater than or equal to a preset threshold through two analog subarrays with a same polarization mode by adopting receiving beams having a same beam direction, acquiring the first signals received by the two analog subarrays, and a difference between phase centers of the two analog subarrays ; keeping the beam directions of the receiving beams of the two analog subarrays unchanged, performing a first change of the difference between phase centers of the two analog subarrays, and acquiring second signals received by the two analog subarrays and a difference between the phase centers after the first change of the two analog subarrays ; keeping the beam directions of the receiving beams of the two analog subarrays unchanged, performing a second change of the difference between phase centers of the two analog subarrays, and acquiring third signals received by the two analog subarrays and a difference between the phase centers after the second change of the two analog subarrays ; and estimating a Direction Of Arrival (DOA) of a receiving signal, according to the first signals, the second signals and the third signals received by the two analog subarrays, the difference between phase centers before the first change, the difference between phase centers after the first change and the difference between phase centers after the second change; and directing a center of a receiving beam to the estimated DOA .
A communication method, comprising: transmitting or receiving an Uplink Control Information, UCI, payload indicator over a downlink channel instructing an access terminal to configure a UCI payload ; and transmitting or receiving UCI including the configured UCI payload over an uplink channel in response to the UCI payload indicator , characterised in that the UCI payload indicator comprising one or more bits indicating a type of information to be transmitted in the configured UCI payload. transmitting or receiving an Uplink Control Information, UCI, payload indicator over a downlink channel instructing an access terminal to configure a UCI payload ; and transmitting or receiving UCI including the configured UCI payload over an uplink channel in response to the UCI payload indicator , characterised in that the UCI payload indicator comprising one or more bits indicating a type of information to be transmitted in the configured UCI payload.
Cooling circuit arrangement of an internal combustion engine , at least comprising a high-temperature circuit and a low-temperature circuit , a first heat exchanger which is arranged in the high-temperature circuit , and an intercooler which is arranged in the low-temperature circuit, the internal combustion engine having an inlet side , an exhaust gas side , and a turbocharger with an exhaust gas turbine and a compressor , the inlet side and the exhaust gas side being connected to one another via at least one combustion chamber , the exhaust gas side and the inlet side being connected to one another and additionally via a low-pressure exhaust gas recirculation line , via which an exhaust gas can be conveyed from the exhaust gas side back to the inlet side , the compressor compressing the gas which is fed to the combustion chamber via the inlet side , including the exhaust gas which is recirculated via the low-pressure exhaust gas recirculation line , the first heat exchanger being arranged in a thermally conducting connection to the low-pressure exhaust gas recirculation line , the intercooler being provided for temperature control of a gas which can be fed via the inlet side to the at least one combustion chamber ; a second heat exchanger being arranged both in the high-temperature circuit and in the low-temperature circuit , with the result that thermal energy can be transmitted between the high-temperature circuit and the low-temperature circuit via the second heat exchanger ; it being possible for the gas which can be fed to the at least one combustion chamber to be heated in a manner which can be closed-loop controlled via the intercooler and via the thermal energy which is introduced by the first heat exchanger into the cooling circuit arrangement ; the low-temperature circuit having a low-temperature circuit cooler ; characterized in that the low-temperature circuit cooler can be bypassed via a bypass line , the bypass line leading via the second heat exchanger , or it additionally being possible for the second heat exchanger to be bypassed via the bypass line .