mhurhangee/patent-ind-claim-en huggingface dataset:
An arrangement comprising a master unit comprising a first output (V1) and a second output (V2), and being configured to provide a first potential at the first output (V1), and a second potential at the second output (V2), wherein the second potential is different from the first potential; a first slave unit and an identical second slave unit , each of the first and second slave units comprising a first input (X1), a second input (X2), and a polarity determination unit ; and a bus line coupled to the master unit , the first lave unit , and the second slave unit , wherein the first input (X1) of the first slave unit is coupled to the first output (V1), and the second input (X2) of the first slave unit is coupled to the second output (V2) of the master unit , characterized in that the first input (X1) of the second slave unit is coupled to the second output (V2), and the second input (X2) of the second slave unit is coupled to the first output (V1) of the master unit , the polarity detection unit of the first slave unit is configured to determine which potential is provided at which input (X1, X2) of the first slave unit , and to output a corresponding polarity signal (P1) having a first state via the bus line , and the polarity detection unit of the second slave unit is configured to determine which potential is provided at which input (X1, X2) of the second slave unit , and to output a corresponding polarity signal (P1) having a second state via the bus line . a master unit comprising a first output (V1) and a second output (V2), and being configured to provide a first potential at the first output (V1), and a second potential at the second output (V2), wherein the second potential is different from the first potential; a first slave unit and an identical second slave unit , each of the first and second slave units comprising a first input (X1), a second input (X2), and a polarity determination unit ; and a bus line coupled to the master unit , the first lave unit , and the second slave unit , wherein the first input (X1) of the first slave unit is coupled to the first output (V1), and the second input (X2) of the first slave unit is coupled to the second output (V2) of the master unit , characterized in that the first input (X1) of the second slave unit is coupled to the second output (V2), and the second input (X2) of the second slave unit is coupled to the first output (V1) of the master unit , the polarity detection unit of the first slave unit is configured to determine which potential is provided at which input (X1, X2) of the first slave unit , and to output a corresponding polarity signal (P1) having a first state via the bus line , and the polarity detection unit of the second slave unit is configured to determine which potential is provided at which input (X1, X2) of the second slave unit , and to output a corresponding polarity signal (P1) having a second state via the bus line .
A communication apparatus comprising: near field wireless communication means for storing information in a memory of the near field wireless communication means , for receiving a read request from an external apparatus and for receiving a write request from the external apparatus, wherein in a case where the read request is received from the external apparatus, communication parameters of the communication apparatus in the memory are read by the external apparatus ; wireless communication means for allowing a longer field wireless communication than a wireless communication using the near field wireless communication means with the external apparatus which read the communication parameters; reading means for reading write information which has been written to the memory , the write information being written if the near field wireless communication means receives the write request from the external apparatus after the communication parameters are read by the external apparatus; setting means for setting a communication mode using the wireless communication means in accordance with the read write information; and update means for updating the memory from a state that the write information is stored in the memory to a state that the communication parameters, which had been stored by the memory before the near field wireless communication means received the write request from the external apparatus, are stored in the memory . near field wireless communication means for storing information in a memory of the near field wireless communication means , for receiving a read request from an external apparatus and for receiving a write request from the external apparatus, wherein in a case where the read request is received from the external apparatus, communication parameters of the communication apparatus in the memory are read by the external apparatus ; wireless communication means for allowing a longer field wireless communication than a wireless communication using the near field wireless communication means with the external apparatus which read the communication parameters; reading means for reading write information which has been written to the memory , the write information being written if the near field wireless communication means receives the write request from the external apparatus after the communication parameters are read by the external apparatus; setting means for setting a communication mode using the wireless communication means in accordance with the read write information; and update means for updating the memory from a state that the write information is stored in the memory to a state that the communication parameters, which had been stored by the memory before the near field wireless communication means received the write request from the external apparatus, are stored in the memory .
An in vitro method for the diagnosis of non-alcoholic fatty liver disease (NAFLD) in a subject that comprises (i) Determining the levels of all metabolic markers according to Table 1 in a sample from the subject, and (ii) Comparing the levels obtained in (i) to a reference value, wherein the subject is diagnosed with NAFLD according to a score that is obtained by introducing the values of said metabolic marker(s) in a logistic regression model. (i) Determining the levels of all metabolic markers according to Table 1 in a sample from the subject, and (ii) Comparing the levels obtained in (i) to a reference value, wherein the subject is diagnosed with NAFLD according to a score that is obtained by introducing the values of said metabolic marker(s) in a logistic regression model.
An aeroderivative gas turbine comprising: a casing ; a compressor having a rotor mounted on a generator shaft supported for rotation in the casing ; a combustor ; a high pressure turbine arranged in the casing and comprised of a rotor mounted on the generator shaft for co-rotation with the compressor rotor ; a power turbine arranged in the casing and comprised of a rotor mounted on a turbine shaft to drive a load, comprising a thermal insulation coating coupled to the casing to reduce heat dispersion through the casing , the turbine characterised in that the insulation coating is an insulation assembly comprising an insulating sheet or panel coupled to a metal sheet maintained at a designed distance from the casing to create a passage and configured for circulating cooling air between the casing and the panel when the rotor is working and configured to allow the air within the passage to act as a thermal insulator for the rotor when the rotor is idle. a casing ; a compressor having a rotor mounted on a generator shaft supported for rotation in the casing ; a combustor ; a high pressure turbine arranged in the casing and comprised of a rotor mounted on the generator shaft for co-rotation with the compressor rotor ; a power turbine arranged in the casing and comprised of a rotor mounted on a turbine shaft to drive a load, comprising a thermal insulation coating coupled to the casing to reduce heat dispersion through the casing , the turbine characterised in that the insulation coating is an insulation assembly comprising an insulating sheet or panel coupled to a metal sheet maintained at a designed distance from the casing to create a passage and configured for circulating cooling air between the casing and the panel when the rotor is working and configured to allow the air within the passage to act as a thermal insulator for the rotor when the rotor is idle.
A kit for targeted medical imaging and/or therapeutics, comprising at least one Pre-targeting Probe and at least one Effector Probe, wherein the Pre-targeting Probe comprises a Primary Targeting Moiety and a first Bio-orthogonal Reactive Group, and wherein the Effector Probe comprises an Effector Moiety, such as a label or a pharmaceutically active compound, and a second Bio-orthogonal Reactive Group, wherein either of the first and second Bio-orthogonal Reactive Groups is a dienophile and the other of the first and second Bio-orthogonal Reactive Groups is a diene, wherein the dienophile is a strained 8-member ring dienophile satisfying formula : wherein each R independently denotes H, or, in at most six instances, a substituent selected from the group consisting of alkyl, O-alkyl, S-alkyl, F, Cl, Br, I, SO 2 , NO 2 , NR'R" with R' and R" each independently being H or alkyl, C(=O)Oalkyl, C(=O)Oaryl, CONR'R" with R' and R" each independently being H, aryl or alkyl, OCOalkyl, OCOaryl, NR'COalkyl with R' being H or alkyl, NR'COaryl with R' being or alkyl, NR'C(=O)Oalkyl with R' being H or alkyl, NR'C(=O)Oaryl with R' being H or alkyl, OCONR'alkyl with R' being H or alkyl, OCONR'aryl with R' being H or alkyl, NR'CONR"alkyl with R' and R" each independently being H or alkyl, NR'CONR"aryl with R' and R" each independently being H or alkyl, NR'CSNR"alkyl with R' and R" each independently being H or alkyl, and NR'CSNR"aryl with R' and R" each independently being H or alkyl; with at least one R comprised in a linker moiety, optionally via a spacer, to the Pre-targeting Probe or the Effector Probe wherein X and Y each independently denote H, or a substituent selected from the group consisting of alkyl, O-alkyl, S-alkyl, F, Cl, Br, I, SO 2 , NO 2 , and NRR' with R and R' each independently being H or alkyl, or together form a bond; and wherein the diene is selected so as to be capable of reacting with the dienophile by undergoing a Diels-Alder cycloaddition followed by a retro Diels-Alder reaction, and wherein the diene satisfies the formula wherein R 1 and R 2 each independently denote a substituent selected from the group consisting of 2-pyridyl, phenyl, or phenyl substituted with one or more electron-withdrawing groups such as NO 2 , CN, COOH, COOR, CONH 2 , CONHR, CONR 2 , CHO, COR, SO 2 R, SO 2 OR, NO, and Ar, wherein R is C 1 -C 6 alkyl and Ar stands for an aromatic group, particularly phenyl, pyridyl, or naphthyl.
A profile clamp comprising a profile strip and a ring-shaped sealing element , wherein the profile strip comprises two tensioning heads on its ends, wherein the tensioning heads are connected together by means of a tensioning element being shaped as a tensioning screw, wherein the sealing element comprises a radially outwardly protruding retaining lug , which is held on the tensioning element , wherein the retaining lug extends in a region between the tensioning heads and is highly visible from the outside, wherein the retaining lug comprises a bent around end , which encompasses the tensioning element at least in part.
An image processing apparatus comprising: a receiver configured to receive image data; and a processor configured to: generate first data, x+jy, by performing a Fourier calculation on the received image data, generate second data, (xz-yw) +j(xw+yz), by multiplying the first data, x+jy, by a prism phase filter value, z+jw, generate third data | x | + ( xz - yw ) by adding an absolute value of a real part of the first data |x| to a real part of the second data, ( xz - yw ), and perform encoding based on the third data | x | + ( xz - yw ) as computer-generated hologram data input for a display panel . a receiver configured to receive image data; and a processor configured to: generate first data, x+jy, by performing a Fourier calculation on the received image data, generate second data, (xz-yw) +j(xw+yz), by multiplying the first data, x+jy, by a prism phase filter value, z+jw, generate third data | x | + ( xz - yw ) by adding an absolute value of a real part of the first data |x| to a real part of the second data, ( xz - yw ), and perform encoding based on the third data | x | + ( xz - yw ) as computer-generated hologram data input for a display panel . generate first data, x+jy, by performing a Fourier calculation on the received image data, generate second data, (xz-yw) +j(xw+yz), by multiplying the first data, x+jy, by a prism phase filter value, z+jw, generate third data | x | + ( xz - yw ) by adding an absolute value of a real part of the first data |x| to a real part of the second data, ( xz - yw ), and perform encoding based on the third data | x | + ( xz - yw ) as computer-generated hologram data input for a display panel .
An acoustic sensor for non-invasively outputting signals responsive to acoustic vibrations indicative of one or more physiological parameters of a medical patient, comprising: a sensor support; a first acoustic sensing element at least partially supported by the sensor support and configured to output a first signal responsive to acoustic vibrations; and a second acoustic sensing element at least partially supported by the sensor support and configured to output a second signal responsive to acoustic vibrations; wherein the first and second acoustic sensing elements are configured to provide the first and second signals to a noise attenuator configured to output a reduced noise signal having a higher signal to noise ratio than either of the first and second signals, characterized in that the first and second acoustic sensing elements are adhesively coupled to one another by an adhesive layer which is disposed between said sensing elements. a sensor support; a first acoustic sensing element at least partially supported by the sensor support and configured to output a first signal responsive to acoustic vibrations; and a second acoustic sensing element at least partially supported by the sensor support and configured to output a second signal responsive to acoustic vibrations; wherein the first and second acoustic sensing elements are configured to provide the first and second signals to a noise attenuator configured to output a reduced noise signal having a higher signal to noise ratio than either of the first and second signals, characterized in that the first and second acoustic sensing elements are adhesively coupled to one another by an adhesive layer which is disposed between said sensing elements.
A downlink information sending method, said method being performed by a base station and comprising: allocating a cell radio network temporary identifier, C-RNTI, and an extension identifier to a user equipment, UE, wherein a combination of the extension identifier and the C-RNTI is used to identify the UE; notifying the UE of the C-RNTI and the extension identifier; generating downlink control information, DCI, for the UE and determining a cyclic redundancy check, CRC, of said DCI; and scrambling the CRC using the C-RNTI; and sending the scrambled CRC with the DCI, wherein the DCI carries the extension identifier, and communicating with the UE according to the DCI. allocating a cell radio network temporary identifier, C-RNTI, and an extension identifier to a user equipment, UE, wherein a combination of the extension identifier and the C-RNTI is used to identify the UE; notifying the UE of the C-RNTI and the extension identifier; generating downlink control information, DCI, for the UE and determining a cyclic redundancy check, CRC, of said DCI; and scrambling the CRC using the C-RNTI; and sending the scrambled CRC with the DCI, wherein the DCI carries the extension identifier, and communicating with the UE according to the DCI.
A gas sensor package, comprising - a gas sensor chip comprising a semiconductor substrate, a processing circuit integrated into the semiconductor substrate, a layer sensitive to a gas, and a heater for heating the sensitive layer , - contact pads (22-27) for electrically contacting the gas sensor package, - a die pad the gas sensor chip is mounted to, - electrical connections between the gas sensor chip and the contact pads (22-27), - a molding compound at least partially enclosing the gas sensor chip , and - an opening in the molding compound providing access to the sensitive layer of the gas sensor chip , - a front side (FS) and a back side (BS), wherein the opening is arranged in the front side (FS), and wherein the contact pads (22-27) are arranged at the back side (BS), - wherein one of the contact pads serves as a pin for supplying electrical current to the heater of the gas sensor chip , - wherein another one of the contact pads serves as a supply pin for supplying power for operating the gas sensor chip except for the heater , - wherein the processing circuit is configured to control the heater . - a gas sensor chip comprising a semiconductor substrate, a processing circuit integrated into the semiconductor substrate, a layer sensitive to a gas, and a heater for heating the sensitive layer , - contact pads (22-27) for electrically contacting the gas sensor package, - a die pad the gas sensor chip is mounted to, - electrical connections between the gas sensor chip and the contact pads (22-27), - a molding compound at least partially enclosing the gas sensor chip , and - an opening in the molding compound providing access to the sensitive layer of the gas sensor chip , - a front side (FS) and a back side (BS), wherein the opening is arranged in the front side (FS), and wherein the contact pads (22-27) are arranged at the back side (BS), - wherein one of the contact pads serves as a pin for supplying electrical current to the heater of the gas sensor chip , - wherein another one of the contact pads serves as a supply pin for supplying power for operating the gas sensor chip except for the heater , - wherein the processing circuit is configured to control the heater .
A method of reconstructing a tomography image of an object from a plurality of projection images generated by scanning the object in a plurality of projection directions depending on a location of a moving radiation source relative to a detector detecting a signal which is generated as the radiation emitted from the radiation source passes through the object , the method comprising: determining whether a truncated portion of the object is present in each of the plurality of projection images; reconstructing a first reconstruction image by using at least one projection image, in which a truncated portion of the object is absent, based on a result of the determining; calculating projection data for the first reconstruction image, by using the first reconstruction image; estimating truncation data representing a truncated portion of the object with respect to at least one of truncated projection images, in which the truncated portion of the object is present, by using the calculated projection data; correcting the estimated truncation data by subtracting a sum of intensity values of the truncated projection image corresponding to the estimated truncation data from a sum of intensity values of the at least one projection image in which the truncated portion of the object is absent, to calculate an amount of energy of the truncated portion of the object and use the amount of energy to correct scaling errors in the estimated truncation data; and reconstructing a tomography image of the object by using the corrected truncation data. determining whether a truncated portion of the object is present in each of the plurality of projection images; reconstructing a first reconstruction image by using at least one projection image, in which a truncated portion of the object is absent, based on a result of the determining; calculating projection data for the first reconstruction image, by using the first reconstruction image; estimating truncation data representing a truncated portion of the object with respect to at least one of truncated projection images, in which the truncated portion of the object is present, by using the calculated projection data; correcting the estimated truncation data by subtracting a sum of intensity values of the truncated projection image corresponding to the estimated truncation data from a sum of intensity values of the at least one projection image in which the truncated portion of the object is absent, to calculate an amount of energy of the truncated portion of the object and use the amount of energy to correct scaling errors in the estimated truncation data; and reconstructing a tomography image of the object by using the corrected truncation data.
A valve assembly for a feeding or drinking vessel , the valve assembly comprising: a lid with a valve seat surface ; a valve element having a valve face opposing said valve seat surface , a centre axis and a rim ; a biasing element configured such that, in a rest position, the valve face is biased against the valve seat surface ; and an actuator arranged to transmit a force to move the valve face from the rest position upon the application of contact pressure from a user's lips; wherein the valve element rim is arranged to be anchored relative to the lid , and the biasing element is arranged intermediate the valve element centre axis and rim . a lid with a valve seat surface ; a valve element having a valve face opposing said valve seat surface , a centre axis and a rim ; a biasing element configured such that, in a rest position, the valve face is biased against the valve seat surface ; and an actuator arranged to transmit a force to move the valve face from the rest position upon the application of contact pressure from a user's lips; wherein the valve element rim is arranged to be anchored relative to the lid , and the biasing element is arranged intermediate the valve element centre axis and rim .
Metering device for dispensing shaped cleaning-agent bodies into a washing chamber of a household dishwasher , comprising • a reservoir which is designed to hold a filling of the shaped cleaning-agent bodies and has a transfer opening in a region of the bottom of the reservoir, and • a transport device for actively transporting the shaped cleaning-agent bodies from the transfer opening of the reservoir into the washing chamber , characterised by a lifting device for raising the bottom of the reservoir at least in parts, wherein a discharge slant towards the transfer opening is produced at least in parts or the downward gradient of an existing discharge slant towards the transfer opening is increased at least in parts by the raising of the bottom . • a reservoir which is designed to hold a filling of the shaped cleaning-agent bodies and has a transfer opening in a region of the bottom of the reservoir, and • a transport device for actively transporting the shaped cleaning-agent bodies from the transfer opening of the reservoir into the washing chamber ,