mhurhangee/patent-ind-claim-en huggingface dataset:
An image processing system (IPS), comprising: an input port (IN) configured to receive a plurality of X-ray images acquired of a region of interest, ROI, in a specimen (SP) at different instants before, during or after deposition of a substance at or around said ROI; an image combiner (MIF) configured to form a first image from a combination of a subset of the plurality of said images acquired up to a first instant; a subtractor (DIFF) configured to subtract the first image from a second image representing a second instant to obtain a difference image that represents an accumulation of said substance between the first and second instant; a contrast measuring unit (CMU) that measures a quantity of the accumulated substance based on the difference image and on a known X-ray absorption characteristic of the substance, and an output port (OUT) configured to output said difference image and/or a numerical indication of the measured quantity. an input port (IN) configured to receive a plurality of X-ray images acquired of a region of interest, ROI, in a specimen (SP) at different instants before, during or after deposition of a substance at or around said ROI; an image combiner (MIF) configured to form a first image from a combination of a subset of the plurality of said images acquired up to a first instant; a subtractor (DIFF) configured to subtract the first image from a second image representing a second instant to obtain a difference image that represents an accumulation of said substance between the first and second instant; a contrast measuring unit (CMU) that measures a quantity of the accumulated substance based on the difference image and on a known X-ray absorption characteristic of the substance, and an output port (OUT) configured to output said difference image and/or a numerical indication of the measured quantity.
Machine for converting heat into mechanical energy comprising: • an expansion device (EXP) producing mechanical energy from a flow of vapor of a fluid; • an evaporator (EVAP) in the form of a tank containing fluid present in vapor phase and in liquid phase, heated by a heat source (Sh) to a high temperature (Th) and configured to supply vapor to the expansion device; • a condenser (COND) in the form of a tank containing fluid present in vapor phase and in liquid phase, cooled by a heat sink (Sb) to a low temperature (Tb) and configured to condense the vapor discharged from the expansion device; • a liquid circuit (VL) connecting a liquid phase of the condenser to a liquid phase of the evaporator; characterized in that it further comprises: • a vapor circuit (VV) connecting a vapor phase of the evaporator to a vapor phase of the condenser; and • valves configured to, - during a first, active stroke, close the liquid and vapor circuits (VV, VL), and - during a second, inactive stroke, open the liquid and vapor circuits. • an expansion device (EXP) producing mechanical energy from a flow of vapor of a fluid; • an evaporator (EVAP) in the form of a tank containing fluid present in vapor phase and in liquid phase, heated by a heat source (Sh) to a high temperature (Th) and configured to supply vapor to the expansion device; • a condenser (COND) in the form of a tank containing fluid present in vapor phase and in liquid phase, cooled by a heat sink (Sb) to a low temperature (Tb) and configured to condense the vapor discharged from the expansion device; • a liquid circuit (VL) connecting a liquid phase of the condenser to a liquid phase of the evaporator; • a vapor circuit (VV) connecting a vapor phase of the evaporator to a vapor phase of the condenser; and • valves configured to, - during a first, active stroke, close the liquid and vapor circuits (VV, VL), and - during a second, inactive stroke, open the liquid and vapor circuits. - during a first, active stroke, close the liquid and vapor circuits (VV, VL), and - during a second, inactive stroke, open the liquid and vapor circuits.
A polymer composite material for 1 H dynamic nuclear polarization experiments, comprising carbon black, having a thickness of 0.8 mm or less, and being doped with a paramagnetic radical compound.
Electronic equipment of a railway vehicle, comprising: - a structure , - an electronic map , - an assembly of electronic components connected to the electronic map , said electronic components being disposed inside the structure , - a cooling module , configured to cool the electronic components by evacuating, towards the outside of the structure , at least a part of a heat dissipated by the electronic components , said cooling module being disposed outside the structure , and - a flange interposed between the cooling module and at least one wall of the structure , said flange being in contact with the cooling module and with said wall of the structure , characterised in that the flange is produced in a thermally insulating material. - a structure , - an electronic map , - an assembly of electronic components connected to the electronic map , said electronic components being disposed inside the structure , - a cooling module , configured to cool the electronic components by evacuating, towards the outside of the structure , at least a part of a heat dissipated by the electronic components , said cooling module being disposed outside the structure , and - a flange interposed between the cooling module and at least one wall of the structure , said flange being in contact with the cooling module and with said wall of the structure ,
A composition, which is an additive composition having a gravimetric water content of ≤ 20% and comprising one or more calcium cis -1,2-cyclohexanedicarboxylate salts, wherein ≥ 25 mol.% of them are calcium cis-1,2-cyclohexanedicarboxylate monohydrate.
An agricultural implement comprising a central main chassis member having a support structure with support arms connected to the support structure for movement between a working position and a transport position, the support arms being provided with operating elements remote from the support structure, the support structure defining a working width between the operating elements and the central main chassis member , and each support arm comprising an inner part displaceable with respect to an outer part , the operating element of the respective support arm being operably connected to the inner part , each of the support arms being adjustable in the working position between a length corresponding to a minimum working width and a length greater than the minimum working width and in which in the transport position a distance between the operating elements and the central main chassis member is less than the minimum working width, in which in a headland position located between the working position and the transport position the support arms are adjustable such that a distance between the operating elements and the main chassis member is less than the length corresponding to the minimum working width, characterised in that the central main chassis member comprises a first upper arcuate part and a second lower arcuate part radially displaced a first distance from the first arcuate part , the upper arcuate part cooperating with an inner end of the inner part to define the minimum working width and the lower arcuate surface cooperating with an inner end of the inner part to enable a distance between the operating elements and the central main chassis member that is less than the minimum working width.
Use of resin composition comprising a block copolymer hydride obtained by hydrogenating 90% or more of all unsaturated bonds of a block copolymer and a plasticizer at 1 to 50 parts by weight with respect to 100 parts by weight of the block copolymer hydride, wherein the block copolymer includes: two or more polymer blocks [A] per one molecule of the copolymer, the block having an aromatic vinyl compound unit as a main component; and one or more polymer blocks [B] per one molecule of the copolymer, the block having a linear conjugated diene compound unit as a main component, and a ratio between a weight fraction wA of all the polymer blocks [A] in the entire block copolymer and a weight fraction wB of all the polymer blocks [B] in the entire block copolymer (wA:wB) is 20:80 to 60:40, and wherein the plasticizer is a hydrocarbon polymer having a number average molecular weight of 200 to 5000, for sealing an organic electronic device. two or more polymer blocks [A] per one molecule of the copolymer, the block having an aromatic vinyl compound unit as a main component; and one or more polymer blocks [B] per one molecule of the copolymer, the block having a linear conjugated diene compound unit as a main component, and a ratio between a weight fraction wA of all the polymer blocks [A] in the entire block copolymer and a weight fraction wB of all the polymer blocks [B] in the entire block copolymer (wA:wB) is 20:80 to 60:40, and wherein the plasticizer is a hydrocarbon polymer having a number average molecular weight of 200 to 5000, for sealing an organic electronic device.
An electric power tool comprising: a driving unit generating a driving force by electricity and various components functioning by electricity; a circuit board on which a control unit configured to control the driving unit and the various components is mounted; a plurality of connectors (71a to 71c) connecting a plurality of wirings (72a to 72c), which extend from the driving unit and the various components , with a plurality of wirings (72a to 72c), which extend from the circuit board ; a body portion installed therein with the driving unit , the various components , the circuit board and the plurality of connectors (71a to 71c); and a receiving portion which receives the plurality of connectors (71a to 71c) therein and which is fixed to the body portion , characterized in that the receiving portion includes a container portion and a lid portion closing the container portion adapted to attach the connectors (71a-71c) to the container portion outside the body portion . a driving unit generating a driving force by electricity and various components functioning by electricity; a circuit board on which a control unit configured to control the driving unit and the various components is mounted; a plurality of connectors (71a to 71c) connecting a plurality of wirings (72a to 72c), which extend from the driving unit and the various components , with a plurality of wirings (72a to 72c), which extend from the circuit board ; a body portion installed therein with the driving unit , the various components , the circuit board and the plurality of connectors (71a to 71c); and a receiving portion which receives the plurality of connectors (71a to 71c) therein and which is fixed to the body portion , characterized in that the receiving portion includes a container portion and a lid portion closing the container portion adapted to attach the connectors (71a-71c) to the container portion outside the body portion .
A method of manufacturing a material , comprising: providing a first layer comprising a first textile material; providing a second layer comprising a second textile material; arranging the second layer on the first layer ; and heat bonding both layers at least partially to each other; characterised in that the first textile material exhibits a first shrinkability and the second textile material exhibits a second shrinkability, wherein the first shrinkability is greater than the second shrinkability, when heat bonding the first layer and the second layer at least partially. providing a first layer comprising a first textile material; providing a second layer comprising a second textile material; arranging the second layer on the first layer ; and heat bonding both layers at least partially to each other; characterised in that the first textile material exhibits a first shrinkability and the second textile material exhibits a second shrinkability, wherein the first shrinkability is greater than the second shrinkability, when heat bonding the first layer and the second layer at least partially.
An input apparatus for operating and/or controlling a technical device by a user, comprising a plurality of sensor elements which are configured to be arranged spatially distributed in the oral cavity of the user in order to detect a respective current tongue position and/or tongue movement of the user, and comprising an interface circuit which is coupled to the sensor elements and which is configured to generate a plurality of control signals depending on the sensor elements and to transmit them to the technical device , characterized in that the sensor elements each include a transponder which is configured to receive an interrogation signal and to transmit an individually encoded response signal to the interface circuit in response thereto, wherein the interface circuit is configured to generate the interrogation signal .
A gas turbine engine comprising an inlet duct , said inlet duct configured to communicate with an inlet to a compressor , wherein: the axial length of the gas turbine engine is less than 38.1 centimeters (15 inches), and said gas turbine engine provides 244 Nm (180 foot pounds) thrust or less, characterized in that said inlet duct is further configured to communicate cooling air outwardly of an outer casing of the gas turbine engine , and to pass the air along an axial length of the gas turbine engine to cool a component associated with said gas turbine engine ; and said inlet duct has a manifold that curves radially outwardly at a downstream end to allow the air to flow along the outer casing of the gas turbine engine , and in that said component includes at least one of an actuator or an electronic control. the axial length of the gas turbine engine is less than 38.1 centimeters (15 inches), and said gas turbine engine provides 244 Nm (180 foot pounds) thrust or less, characterized in that said inlet duct is further configured to communicate cooling air outwardly of an outer casing of the gas turbine engine , and to pass the air along an axial length of the gas turbine engine to cool a component associated with said gas turbine engine ; and said inlet duct has a manifold that curves radially outwardly at a downstream end to allow the air to flow along the outer casing of the gas turbine engine , and in that said component includes at least one of an actuator or an electronic control.
A motor control apparatus for controlling a motor by controlling the current fed into the motor , comprising: a receiver section for receiving a value detected by a temperature sensor installed inside the motor or on the motor or on the discharging side of a compressor main body , characterized in that the motor is a synchronous motor controlled by the motor control apparatus such that: the synchronous motor is started up in a positioning operation by causing a DC current to flow through a given phase winding of an armature winding installed in the synchronous motor such that the magnitude of the DC current fed into the motor at the time of startup of the motor is set larger as the temperature value received by the receiver section lowers; after the positioning operation, a synchronous operation, is performed until a rotational speed is reached which can stabilize a position-sensor-free control; and subsequent to the synchronous operation, the position-sensor-free control is performed. a receiver section for receiving a value detected by a temperature sensor installed inside the motor or on the motor or on the discharging side of a compressor main body , characterized in that the motor is a synchronous motor controlled by the motor control apparatus such that: the synchronous motor is started up in a positioning operation by causing a DC current to flow through a given phase winding of an armature winding installed in the synchronous motor such that the magnitude of the DC current fed into the motor at the time of startup of the motor is set larger as the temperature value received by the receiver section lowers; after the positioning operation, a synchronous operation, is performed until a rotational speed is reached which can stabilize a position-sensor-free control; and subsequent to the synchronous operation, the position-sensor-free control is performed. the synchronous motor is started up in a positioning operation by causing a DC current to flow through a given phase winding of an armature winding installed in the synchronous motor such that the magnitude of the DC current fed into the motor at the time of startup of the motor is set larger as the temperature value received by the receiver section lowers; after the positioning operation, a synchronous operation, is performed until a rotational speed is reached which can stabilize a position-sensor-free control; and subsequent to the synchronous operation, the position-sensor-free control is performed.
An electromagnetic spring , characterized in that the electromagnetic spring comprises: a rotor ; a stator , operable to brake a rotation of the rotor ; a gear set , comprising a first input shaft , a second input shaft and an output shaft, wherein the second input shaft connects to the rotor , and a power generated by the rotor and an external power inputted from the first input shaft are coupled via the gear set , and then outputted from the output shaft. a rotor ; a stator , operable to brake a rotation of the rotor ; a gear set , comprising a first input shaft , a second input shaft and an output shaft, wherein the second input shaft connects to the rotor , and a power generated by the rotor and an external power inputted from the first input shaft are coupled via the gear set , and then outputted from the output shaft.
A method for making a dairy composition, the method comprising: (i) ultrafiltering a milk product at a temperature from 3 to 15 °C to produce a UF permeate fraction and a UF retentate fraction; (ii) subjecting the UF permeate fraction to a reverse osmosis step to produce a RO permeate fraction and a RO retentate fraction containing at least 8 wt. % milk sugar; (iii) nanofiltering the RO retentate fraction to produce a NF permeate fraction containing from 300 to 800 ppm sodium and from 1500 to 3000 ppm potassium, and a NF retentate fraction containing at least 10 wt. % milk sugar; and (iv) combining at least two of the UF retentate fraction, a DF/UF retentate fraction, the NF permeate fraction, the RO permeate fraction, the RO retentate fraction, and a fat-rich fraction to form the dairy composition. (i) ultrafiltering a milk product at a temperature from 3 to 15 °C to produce a UF permeate fraction and a UF retentate fraction; (ii) subjecting the UF permeate fraction to a reverse osmosis step to produce a RO permeate fraction and a RO retentate fraction containing at least 8 wt. % milk sugar; (iii) nanofiltering the RO retentate fraction to produce a NF permeate fraction containing from 300 to 800 ppm sodium and from 1500 to 3000 ppm potassium, and a NF retentate fraction containing at least 10 wt. % milk sugar; and a NF permeate fraction containing from 300 to 800 ppm sodium and from 1500 to 3000 ppm potassium, and a NF retentate fraction containing at least 10 wt. % milk sugar; and (iv) combining at least two of the UF retentate fraction, a DF/UF retentate fraction, the NF permeate fraction, the RO permeate fraction, the RO retentate fraction, and a fat-rich fraction to form the dairy composition.
Ultrasonic flow meter, comprising - a first and a second transducer , - a first and a second impedance circuit , - a first terminal coupled to the first transducer via the first impedance circuit , - a second terminal coupled to the second transducer via the second impedance circuit , - a signal generator with a signal output and a signal evaluation circuit with a signal input , wherein the signal output and the signal input are coupled to the first and the second terminal , and - a control circuit that is coupled to the signal generator and the signal evaluation circuit , characterized in that the first and the second impedance circuit comprise a variable impedance, wherein the signal evaluation circuit comprises a time-to-digital converter and a first comparator that couples the signal input to a first input of the time-to-digital converter , wherein the control circuit is coupled to the variable impedance and is configured to set the ultrasonic flow meter in an up-stream mode (A) and in a downstream mode (B) and to set an impedance value of the variable impedance as a function of a first up-stream time signal (SD1UP) generated by the time-to-digital converter in the up-stream mode (A) and of a first down-stream time signal (SD1DO) generated by the time-to-digital converter in the down-stream mode (B). - a first and a second transducer , - a first and a second impedance circuit , - a first terminal coupled to the first transducer via the first impedance circuit , - a second terminal coupled to the second transducer via the second impedance circuit , - a signal generator with a signal output and a signal evaluation circuit with a signal input , wherein the signal output and the signal input are coupled to the first and the second terminal , and - a control circuit that is coupled to the signal generator and the signal evaluation circuit , that the first and the second impedance circuit comprise a variable impedance, wherein the signal evaluation circuit comprises a time-to-digital converter and a first comparator that couples the signal input to a first input of the time-to-digital converter , wherein the control circuit is coupled to the variable impedance and is configured to set the ultrasonic flow meter in an up-stream mode (A) and in a downstream mode (B) and to set an impedance value of the variable impedance as a function of a first up-stream time signal (SD1UP) generated by the time-to-digital converter in the up-stream mode (A) and of a first down-stream time signal (SD1DO) generated by the time-to-digital converter in the down-stream mode (B).
System on chip for a control device of a vehicle with at least one bus , at least one control unit connected to the at least one bus for controlling a peripheral device assigned to the at least one control unit , multiple processors connected to the at least one bus and a protection system , which is configured to authorise allowed access of a certain processor to a certain control unit or of the certain control unit to the certain processor and to prevent prohibited access of a certain processor to a certain control unit or of the certain control unit to the certain processor .