mhurhangee/patent-ind-claim-en huggingface dataset:
A polypropylene composition comprising: a) 55.0 to 90.0 wt% of a crystalline propylene random copolymer (C-PP) comprising propylene monomers and 1.0 to 6.5 wt% of at least one comonomer selected from ethylene and a C 4 -C 12 alpha-olefin, having a melting temperature in the range of 135 to 155 °C as measured according to ISO 11357-3 and a melt flow rate (MFR 2 ) in the range of 0.1 to 15 g/10 min as measured according to ISO 1133 at a temperature of 230 °C and under a load of 2.16 kg and b) 10.0 to 45.0 wt% of an amorphous propylene copolymer (AM-PP) comprising propylene monomers and 30.0 to 50.0 wt% of at least one comonomer selected from ethylene and a C 4 -C 12 alpha-olefin and having a glass transition temperature Tg(b) in the range of -60 to -40 °C, the wt% of the C-PP and AM-PP copolymers being relative to the total weight of the C-PP and AM-PP copolymers, said polypropylene composition having a melt flow rate (MFR 2 ) in the range of 0.3 to 90 g/10min as measured according to ISO 1133 at a temperature of 230 °C and under a load of 2.16 kg and also having a relative content of isolated to block comonomer sequences I(E) in the range of 20 to 50%, which is calculated according to the equation: I E = fPEP / fEEE + fPEE + fPEP × 100 wherein I(E) is the relative content of isolated to block comonomer sequences [in %]; fPEP is the mol fraction of propylene/comonomer/propylene sequences (PEP) in the sample; fPEE is the mol fraction of propylene/comonomer/comonomer sequences (PEE) and of comonomer/comonomer/propylene sequences (EEP) in the sample; fEEE is the mol fraction of comonomer/comonomer/comonomer sequences (EEE) in the sample wherein all sequence concentrations being based on a statistical triad analysis of 13 C-NMR data. a) 55.0 to 90.0 wt% of a crystalline propylene random copolymer (C-PP) comprising propylene monomers and 1.0 to 6.5 wt% of at least one comonomer selected from ethylene and a C 4 -C 12 alpha-olefin, having a melting temperature in the range of 135 to 155 °C as measured according to ISO 11357-3 and a melt flow rate (MFR 2 ) in the range of 0.1 to 15 g/10 min as measured according to ISO 1133 at a temperature of 230 °C and under a load of 2.16 kg and b) 10.0 to 45.0 wt% of an amorphous propylene copolymer (AM-PP) comprising propylene monomers and 30.0 to 50.0 wt% of at least one comonomer selected from ethylene and a C 4 -C 12 alpha-olefin and having a glass transition temperature Tg(b) in the range of -60 to -40 °C, the wt% of the C-PP and AM-PP copolymers being relative to the total weight of the C-PP and AM-PP copolymers, I(E) is the relative content of isolated to block comonomer sequences [in %]; fPEP is the mol fraction of propylene/comonomer/propylene sequences (PEP) in the sample; fPEE is the mol fraction of propylene/comonomer/comonomer sequences (PEE) and of comonomer/comonomer/propylene sequences (EEP) in the sample; fEEE is the mol fraction of comonomer/comonomer/comonomer sequences (EEE) in the sample
An emergency brake valve system for a pneumatic brake system, comprising: a first valve and a second valve , the first valve being configured so as to convey an auxiliary pressure (p hilf ) to or isolate an auxiliary pressure (p hilf ) from the second valve ; and the second valve being configured so as to provide either a static pressure (p stat ) or a regulated pressure (p ger ) dependent on the auxiliary pressure (p hilf ), characterised in that the first valve is configured such that in normal operation it isolates the auxiliary pressure (p hilf ) from the second valve so that the second valve provides the regulated pressure (p ger ), and is further configured such that in emergency operation it conveys the auxiliary pressure (p hilf ) to the second valve so that the second valve provides the static pressure (p stat ). a first valve and a second valve , the first valve being configured so as to convey an auxiliary pressure (p hilf ) to or isolate an auxiliary pressure (p hilf ) from the second valve ; and the second valve being configured so as to provide either a static pressure (p stat ) or a regulated pressure (p ger ) dependent on the auxiliary pressure (p hilf ), characterised in that the first valve is configured such that in normal operation it isolates the auxiliary pressure (p hilf ) from the second valve so that the second valve provides the regulated pressure (p ger ), and is further configured such that in emergency operation it conveys the auxiliary pressure (p hilf ) to the second valve so that the second valve provides the static pressure (p stat ).
A method of controlling adherence of microparticles to a substrate (W) to be processed, comprising: applying voltage to an electrostatic chuck configured to electrostatically attract the substrate (W) to be processed in a processing container before the substrate (W) to be processed is carried into the processing container ; and after the applying of voltage to the electrostatic chuck , carrying the substrate (W) to be processed into the processing container , wherein, in the applying of voltage to the electrostatic chuck , the voltage is applied to the electrostatic chuck to reduce a potential difference between a focus ring and the substrate (W) to be processed, the focus ring being provided to surround the electrostatic chuck . applying voltage to an electrostatic chuck configured to electrostatically attract the substrate (W) to be processed in a processing container before the substrate (W) to be processed is carried into the processing container ; and after the applying of voltage to the electrostatic chuck , carrying the substrate (W) to be processed into the processing container , wherein, in the applying of voltage to the electrostatic chuck , the voltage is applied to the electrostatic chuck to reduce a potential difference between a focus ring and the substrate (W) to be processed, the focus ring being provided to surround the electrostatic chuck .
A fusion protein comprising: (i) a first component containing at least one polypeptide of interest; and (ii) a second component selected from the group of: - a polypeptide consisting of the amino acids of SEQ ID NO: 2; - a polypeptide consisting of the amino acids of SEQ ID NO: 3; - a polypeptide consisting of the amino acids of SEQ ID NO: 4; and - a polypeptide consisting of the amino acids of SEQ ID NO: 5. (i) a first component containing at least one polypeptide of interest; and (ii) a second component selected from the group of: - a polypeptide consisting of the amino acids of SEQ ID NO: 2; - a polypeptide consisting of the amino acids of SEQ ID NO: 3; - a polypeptide consisting of the amino acids of SEQ ID NO: 4; and - a polypeptide consisting of the amino acids of SEQ ID NO: 5. - a polypeptide consisting of the amino acids of SEQ ID NO: 2; - a polypeptide consisting of the amino acids of SEQ ID NO: 3; - a polypeptide consisting of the amino acids of SEQ ID NO: 4; and - a polypeptide consisting of the amino acids of SEQ ID NO: 5.
Loudspeaker device, comprising: first and second diaphragms arranged co-axially in an opposed relation to each other, each diaphragm having a plurality of motors operatively coupled thereto, wherein the plurality of motors of the first diaphragm and the plurality of motors of the second diaphragm are different and arranged in the same plane, further comprising a frame having first and second ends , the first diaphragm arranged near the first end of the frame and the second diaphragm arranged near the second end of the frame , the motors of the first and second diaphragms being provided on the frame , wherein the frame comprises first and second rims provided at the first and second ends , respectively, wherein the first diaphragm is mounted to the first rim via a first surround, and the second diaphragm is mounted to the second rim via a second surround, wherein the frame further comprises a first support member provided closer to the second end than to the first end and a second support member provided closer to the first end than to the second end , the motors of the first diaphragm being provided on the first support member and the motors of the second diaphragm being provided on the second support member , and wherein the first and second support members are rotationally offset from each other whereby the plurality of motors of the first diaphragm and the plurality of motors of the second diaphragm are arranged in an alternating manner. further comprising a frame having first and second ends , the first diaphragm arranged near the first end of the frame and the second diaphragm arranged near the second end of the frame , the motors of the first and second diaphragms being provided on the frame , wherein the frame comprises first and second rims provided at the first and second ends , respectively, wherein the first diaphragm is mounted to the first rim via a first surround, and the second diaphragm is mounted to the second rim via a second surround, wherein the frame further comprises a first support member provided closer to the second end than to the first end and a second support member provided closer to the first end than to the second end , the motors of the first diaphragm being provided on the first support member and the motors of the second diaphragm being provided on the second support member , and wherein the first and second support members are rotationally offset from each other whereby the plurality of motors of the first diaphragm and the plurality of motors of the second diaphragm are arranged in an alternating manner.
A microwave attenuator device for cryogenic environments, the device comprising a high thermal conductivity housing, a substrate, wherein the housing comprising an oxygen-free and/or an electrolytic copper attenuator housing for improved thermalization to refrigerator plates, the housing coupled to the substrate that provides a thermal conductivity level that is in a range of around 100 to 200 watts per meter per Kelvin, W/m/K; one or more thin film lines , on a top surface of the substrate, the thin film lines comprising an alloy, the one or more thin film lines operable for transmitting a microwave signal, the alloy selected from one of copper and Nichrome, NiCr; one or more resistors on the substrate, coupled to the one or more thin film lines; one or more thin film connectors , coupled to the one or more resistors; a ground plane, wherein the substrate is over the ground plane; one or more vias within the substrate, wherein respective first ends of the one or more vias are connected to respective thin film connectors and respective second ends of the one or more vias are connected to the ground plane; wherein the respective thin film connectors and the one or more vias comprise heat sinks operable for removing hot electrons from the one or more resistors. one or more thin film lines , on a top surface of the substrate, the thin film lines comprising an alloy, the one or more thin film lines operable for transmitting a microwave signal, the alloy selected from one of copper and Nichrome, NiCr; one or more resistors on the substrate, coupled to the one or more thin film lines; one or more thin film connectors , coupled to the one or more resistors; a ground plane, wherein the substrate is over the ground plane; one or more vias within the substrate, wherein respective first ends of the one or more vias are connected to respective thin film connectors and respective second ends of the one or more vias are connected to the ground plane; wherein the respective thin film connectors and the one or more vias comprise heat sinks operable for removing hot electrons from the one or more resistors.
A laminated sheet comprising a two-layer sheet in which a layer L1 including - 50-99 parts by mass (pbm) of an ethylene-based polymer (E1) having a density of 890-970 kg/m 3 , and - 1-50 pbm of a propylene-based polymer (P1), with the total of (E1) and (P1) being 100 pbm), is in contact with a layer L2 including - 0-50 pbm of an ethylene-based elastomer (E2) having a density of 850 to < 890 kg/m 3 , and - 50-100 pbm of a propylene-based polymer (P2), with the total of (P2) and (E2) being 100 pbm, wherein (P1) includes a propylene-based elastomer (P1a) including a propylene-derived constitutional unit and an ethylene-derived constitutional unit and/or a constitutional unit derived from a C 4-20 -α-olefin, and satisfies the requirement (a-1) of a melting point (Tm) which, measured using a differential scanning calorimeter (DSC), is < 120°C or is not observable. - 50-99 parts by mass (pbm) of an ethylene-based polymer (E1) having a density of 890-970 kg/m 3 , and - 1-50 pbm of a propylene-based polymer (P1), with the total of (E1) and (P1) being 100 pbm), is in contact with a layer L2 including - 0-50 pbm of an ethylene-based elastomer (E2) having a density of 850 to < 890 kg/m 3 , and - 50-100 pbm of a propylene-based polymer (P2), with the total of (P2) and (E2) being 100 pbm, wherein (P1) includes a propylene-based elastomer (P1a) including a propylene-derived constitutional unit and an ethylene-derived constitutional unit and/or a constitutional unit derived from a C 4-20 -α-olefin, and satisfies the requirement (a-1) of a melting point (Tm) which, measured using a differential scanning calorimeter (DSC), is < 120°C or is not observable.
A communication control apparatus (2-1, 2-2, 2-3, 4) for provision of a service to a user, the communication control apparatus (2-1, 2-2, 2-3, 4) comprising: a selection unit configured to select users from a plurality of users based on intensities of received signals of sensor information transmitted by a plurality of tag devices associated with the plurality of users, respectively; an output unit configured to output to a service provision device information that specifies the selected users, and to cause the service provision device to output information that identifies the selected users via names of the selected users obtained from a database and that instructs an operation for the tag devices associated with the selected users, respectively; a detection unit configured to detect the tag device for which the operation has been performed based on acceleration information of the tag devices associated with the selected users, respectively; and a first control unit configured to output to the service provision device information that specifies a specific user associated with the detected tag device and to cause the service provision device to output sound information regarding the service, the sound information regarding the service including the name of the specific user obtained from the database. a selection unit configured to select users from a plurality of users based on intensities of received signals of sensor information transmitted by a plurality of tag devices associated with the plurality of users, respectively; an output unit configured to output to a service provision device information that specifies the selected users, and to cause the service provision device to output information that identifies the selected users via names of the selected users obtained from a database and that instructs an operation for the tag devices associated with the selected users, respectively; a detection unit configured to detect the tag device for which the operation has been performed based on acceleration information of the tag devices associated with the selected users, respectively; and a first control unit configured to output to the service provision device information that specifies a specific user associated with the detected tag device and to cause the service provision device to output sound information regarding the service, the sound information regarding the service including the name of the specific user obtained from the database.
An assembly comprising: a housing along a fluid line through which gas can flow, the housing having an annular shape, a housing groove extending circumferentially around a radial interior, and a sense hole adjacent the housing groove in a bottom side of the housing; and a piezometer ring disposed within the housing groove and coaxial with the housing, characterized in that the piezometer ring having a ring groove extending circumferentially around a radially outer side adjacent the housing and a plurality of ring holes extending radially through the piezometer ring, the plurality of ring holes including two bottom holes closest to the bottom side of the housing that are spaced farther apart from one another than from adjacent holes of the plurality of ring holes. a housing along a fluid line through which gas can flow, the housing having an annular shape, a housing groove extending circumferentially around a radial interior, and a sense hole adjacent the housing groove in a bottom side of the housing; and a piezometer ring disposed within the housing groove and coaxial with the housing, characterized in that the piezometer ring having a ring groove extending circumferentially around a radially outer side adjacent the housing and a plurality of ring holes extending radially through the piezometer ring, the plurality of ring holes including two bottom holes closest to the bottom side of the housing that are spaced farther apart from one another than from adjacent holes of the plurality of ring holes.
A process for the start-up of a hydrodesulfurization section, comprising the steps of - providing a natural gas (NG) feed, - passing the natural gas feed through the waste heat section of a reformer, thereby heating the natural gas feed, - passing the heated natural gas feed through a hydrodesulfurization section comprising a hydrogenation part, thereby heating the hydrodesulfurization section while producing a desulfurized natural gas stream, and - providing a part of the desulfurized natural gas stream as fuel for the reformer, wherein sulfur-containing NG is constantly sent to the hydrogenator and recycling the remainder of the desulfurized natural gas to at least one point upstream the waste heat section. - providing a natural gas (NG) feed, - passing the natural gas feed through the waste heat section of a reformer, thereby heating the natural gas feed, - passing the heated natural gas feed through a hydrodesulfurization section comprising a hydrogenation part, thereby heating the hydrodesulfurization section while producing a desulfurized natural gas stream, and - providing a part of the desulfurized natural gas stream as fuel for the reformer,
Volatile substance evaporation device comprising a constant evaporation chamber housing a liquid with volatile substances, an enhanced evaporation chamber comprising an absorbent body therein, and an evaporation membrane through which the volatile substances evaporate, characterized in that each of the chambers has an opening, wherein said openings are different from each other and both openings are covered by the evaporation membrane, and wherein the two chambers are connected via a portion through which the liquid inside the constant evaporation chamber goes to the enhanced evaporation chamber thereby impregnating the absorbent body.
Aircraft provided with a fuel cell and a tail boom supporting a shrouded rotor , the shrouded rotor comprising a shroud delimiting an air stream , the shrouded rotor comprising a rotor rotationally mobile in said air stream , characterised in that said aircraft comprises a cooling system for cooling said fuel cell , the cooling system being provided with a cooling circuit , in which a heat-transfer fluid circulates, said cooling circuit comprising a collection pipe routed in the fuel cell or next to the fuel cell , said cooling circuit comprising a heat exchanger in fluid communication with said collection pipe , said cooling system comprising a ventilation system provided with at least one outlet opening arranged in the shrouded rotor for ventilating said heat exchanger at least by suction according to a direction of circulation .
A collection system for particulate matter (S) along a conveyor system (T) of products (P), which advance in an advancing direction (V1), by means of a carrier gas flow (F1); said collection system comprising a hood which comprises, in turn, a bent wall , which is curved and delimits a suction area (A), and a connection , which fluidly connects said suction area (A) with a suction conduit through an opening of said bent wall ; wherein said bent wall has a longitudinal axis (X2), which in use is transversal, in particular perpendicular, to the advancing direction (V1) of the products (P); characterised in that said collection system comprises one or two lateral wings , wherein each lateral wing is releasably connected to a respective end of said bent wall of the hood ; wherein each lateral wing is a laminar body and has a section with a shape similar to that of said bent wall ; wherein each lateral wing is an extension of said bent wall .
PTC thermistor element for a tempering device , having a main body which has a positive temperature coefficient, wherein the main body has PTC thermistor components having a positive temperature coefficient, characterized in that at least in the core said main body has ceramics components having a thermal conductivity of at least 2.5 W/mK, said ceramics components being disposed in a distributed manner, and the main body has islets or granules from the PTC thermistor components and islets or granules from the ceramics components being disposed in a distributed manner in the main body . the main body has PTC thermistor components having a positive temperature coefficient, characterized in that at least in the core said main body has ceramics components having a thermal conductivity of at least 2.5 W/mK, said ceramics components being disposed in a distributed manner, and the main body has islets or granules from the PTC thermistor components and islets or granules from the ceramics components being disposed in a distributed manner in the main body .
A method for controlling an internal combustion engine (E) of a vehicle , the combustion engine (E) comprising a cylinder (C1) having a space (O1) arranged to receive air and fuel, a piston (P1) disposed in the cylinder, a crankcase (CC) being in fluid communication with the cylinder, comprising the step of determining (S1) an uncontrolled behaviour due to fluid flow between said crankcase (CC) and said cylinder space (O1) and combustion of such fluid; and if an uncontrolled behaviour has been determined, the method comprising the further steps of: - determining (S2) whether the vehicle is in a safe position by determining whether the vehicle speed is below a certain speed and/or determining whether the parking brake is activated and/or determining whether the ignition is deactivated, and, - if the vehicle is in a safe position, performing an emergency stop such that engine operation is terminated, and; - if the vehicle is not in a safe position, operating the engine by controlling an exhaust brake (V3) of the vehicle by intermittently activating and deactivating said exhaust brake, and wherein the step of determining an uncontrolled behaviour comprises the steps of: determining whether the powertrain is disengaged; determining whether the engine speed is increasing; and determining whether said cylinder space is receiving fuel; wherein an uncontrolled behaviour is at hand if the conditions that: said powertrain is disengaged, the engine speed is increasing and said cylinder space is not receiving any fuel, are fulfilled. - determining (S2) whether the vehicle is in a safe position by determining whether the vehicle speed is below a certain speed and/or determining whether the parking brake is activated and/or determining whether the ignition is deactivated, and, - if the vehicle is in a safe position, performing an emergency stop such that engine operation is terminated, and; - if the vehicle is not in a safe position, operating the engine by controlling an exhaust brake (V3) of the vehicle by intermittently activating and deactivating said exhaust brake,