mhurhangee/patent-ind-claim-en huggingface dataset:
A magnetic core material for electrophotographic developer, satisfying a value of Expression : a + b × 10 + c + d + e + f, being from 200 to 1,400, when an amount of fluorine ion is denoted by a (ppm), an amount of chlorine ion is denoted by b (ppm), an amount of bromide ion is denoted by c (ppm), an amount of nitrite ion is denoted by d (ppm), an amount of nitrate ion is denoted by e (ppm), and an amount of sulfate ion is denoted by f (ppm), which are measured by combustion ion chromatography as described in the description; and having a pore volume, measured as described in the description, of from 30 to 100 mm 3 /g.
A compound represented by the following formula (I), or a salt thereof: wherein X represents -CH=CH-, -NH-, a sulfur atom or an oxygen atom; and n represents an integer of 0 to 2.
Turbocharger assembly for an internal combustion engine, preferably of a commercial vehicle, comprising: a turbocharger with a turbine housing , an exhaust pipe arranged downstream of the turbine housing and having a diffuser portion and an exhaust manifold portion , the exhaust manifold portion being defined by a curved configuration that results in a change in flow direction of the flowing medium along the curved configuration of the exhaust manifold portion , wherein a wastegate duct comprising at least one passage through a pipe wall of said exhaust pipe , said at least one passage being provided downstream of said diffuser portion and upstream of said exhaust manifold portion , characterized in that said diffuser portion extends at least partially, in particular substantially completely, into said turbine housing , and wherein the exhaust pipe further comprises a flange portion for flanging the exhaust pipe to the turbine housing , the flange portion being arranged downstream of an inlet opening of the exhaust pipe , downstream of the diffuser portion and upstream of the exhaust manifold portion . a turbocharger with a turbine housing , an exhaust pipe arranged downstream of the turbine housing and having a diffuser portion and an exhaust manifold portion , the exhaust manifold portion being defined by a curved configuration that results in a change in flow direction of the flowing medium along the curved configuration of the exhaust manifold portion , wherein a wastegate duct comprising at least one passage through a pipe wall of said exhaust pipe , said at least one passage being provided downstream of said diffuser portion and upstream of said exhaust manifold portion , characterized in that said diffuser portion extends at least partially, in particular substantially completely, into said turbine housing , and wherein the exhaust pipe further comprises a flange portion for flanging the exhaust pipe to the turbine housing , the flange portion being arranged downstream of an inlet opening of the exhaust pipe , downstream of the diffuser portion and upstream of the exhaust manifold portion .
Sealing tape for sealing a joint, having two longitudinally running side flanks , wherein a direction transverse to the side flanks defines a functional direction (F) of the sealing tape , wherein the sealing tape has at least one first foam strip and one second foam strip made of a flexible foam which is capable of recovery following compression, said strips not being formed in one piece with one another and being arranged one beside the other in a functional direction (F) of the sealing tape , wherein each foam strip has an upper side , an underside and an inner side flank , which is directed towards the other foam strip , and wherein the sealing tape has a first film strip , which is arranged between the first foam strip and the second foam strip such that it reduces vapour-diffusion permeability of the sealing tape in the functional direction (F), wherein the first film strip is adhesively bonded to the first foam strip , characterized in that a second film strip is provided, said second film strip being adhesively bonded to the second foam strip , the first film strip is adhesively bonded to the second film strip , and adhesion sites between the first film strip and the second film strip are arranged merely in a region in the vicinity of the upper side of the first foam strip and in a region in the vicinity of the underside of the first foam strip , whereas the first film strip and the second film strip are not adhesively bonded to one another in an intermediate region between the adhesion sites .
A fluid ejection die comprising an integrated circuit for driving a plurality of fluid actuation devices, the integrated circuit comprising: a plurality of first memory cells , each first memory cell storing a customization bit to configure an operation of the integrated circuit ; a plurality of first storage elements , each first storage element coupled to a corresponding first memory cell ; control logic to, in response to a reset signal, read the customization bit stored in each first memory cell and latch each customization bit in a corresponding first storage element ; a second memory cell storing a lock bit; and a second storage element coupled to the second memory cell , wherein the control logic is to, in response to the reset signal, read the lock bit stored in the second memory cell and latch the lock bit in the second storage element , and wherein the control logic is to allow or prevent writing to the plurality of first memory cells based on the latched lock bit, and to allow or prevent external read access of the plurality of first memory cells based on the latched lock bit. a plurality of first memory cells , each first memory cell storing a customization bit to configure an operation of the integrated circuit ; a plurality of first storage elements , each first storage element coupled to a corresponding first memory cell ; control logic to, in response to a reset signal, read the customization bit stored in each first memory cell and latch each customization bit in a corresponding first storage element ; a second memory cell storing a lock bit; and a second storage element coupled to the second memory cell , wherein the control logic is to, in response to the reset signal, read the lock bit stored in the second memory cell and latch the lock bit in the second storage element , and wherein the control logic is to allow or prevent writing to the plurality of first memory cells based on the latched lock bit, and to allow or prevent external read access of the plurality of first memory cells based on the latched lock bit.
Processing device for processing accelerometer signals (17, 17a-c) for use in monitoring vital signs of a subject, comprising: - a signal input unit configured to input an accelerometer signal (17, 17a-c) of the subject in time, the accelerometer signal (17, 17a-c) being related to at least one physiological event being a cardiovascular or a respiratory event of the subject and measured for at least one spatial direction, - an envelope determination unit configured to determine an envelope signal of the input accelerometer signal (17, 17a-c), - a calculation unit configured to calculate an adjustment factor based on an estimated time interval between a first and a second physiological event of the subject, use a positively and/or negatively time-shifted version of the envelope signal , shifted by the estimated time interval , and calculate the adjustment factor using a primary function, the primary function comprising a secondary function dependent on the determined envelope signal and/or the positively and/or negatively time-shifted version of the envelope signal , and - a signal adjustment unit configured to adjust the determined envelope signal by multiplying the envelope signal with the calculated adjustment factor . - a signal input unit configured to input an accelerometer signal (17, 17a-c) of the subject in time, the accelerometer signal (17, 17a-c) being related to at least one physiological event being a cardiovascular or a respiratory event of the subject and measured for at least one spatial direction, - an envelope determination unit configured to determine an envelope signal of the input accelerometer signal (17, 17a-c), - a calculation unit configured to calculate an adjustment factor based on an estimated time interval between a first and a second physiological event of the subject, use a positively and/or negatively time-shifted version of the envelope signal , shifted by the estimated time interval , and calculate the adjustment factor using a primary function, the primary function comprising a secondary function dependent on the determined envelope signal and/or the positively and/or negatively time-shifted version of the envelope signal , and - a signal adjustment unit configured to adjust the determined envelope signal by multiplying the envelope signal with the calculated adjustment factor .
A method for generating an area map for an automatically moving floor processing device , wherein a first floor processing device detects first feature data of an environment and processes them into a first area map , wherein a second floor processing device detects second feature data of the environment and processes them into a second area map , wherein the first area map and the second area map are combined into a common area map , wherein the first floor processing device identifies an object based on a unique identifier of the object as an anchor point of the environment known to the first floor processing device , and stores relative positional information of the anchor point in a coordinate system of the first area map , wherein the second floor processing device recognizes the same object as an anchor point known to the second floor processing device , and stores relative positional information of the anchor point in a coordinate system of the second area map , and wherein the first area map and the second area map are combined into a common global area map based on the relative positional information of the anchor point contained therein, and wherein the unique identifier is a code that clearly identifies the object , specifically an optical code, an electronic code, a magnetic code, a shape coding and/or a color coding, characterized in that the first floor processing device detects the second floor processing device and transmits a request signal to the second floor processing device , wherein the inquiry signal of the first floor processing device initiates an environment detection by the second floor processing device and the second floor processing device explores its environment in response to the inquiry signal and detects the first floor processing device , wherein the floor processing devices identify each other by means of their identifiers , and wherein authorization information is stored in the created global area map for at least one partial environmental area , which authorization information indicates which floor processing device may or may not map the partial environmental area .
An exhaust gas purification system for an internal combustion engine , in which an exhaust passage of the internal combustion engine includes, in order from an upstream side: a urea water supply device ; an exhaust gas purification treatment device; and a downstream temperature detecting device , the exhaust gas purification treatment device including: a selective reduction catalyst device group including at least one selective reduction catalyst device ; and an oxidation catalyst device arranged at a downstream side of the selective reduction catalyst device group, wherein a control device which controls the exhaust gas purification system is configured to: detect, by the downstream temperature detecting device, a first temperature (T1) which is a temperature of exhaust gas (Gc) which has passed through the exhaust gas purification treatment device during supply of urea water (U) from the urea water supply device; calculate, from preset data, a second temperature (T2) which is a temperature of exhaust gas (G) which has passed through the exhaust gas purification treatment device in a state where the engine is in a same operating state as when the first temperature is detected and the supply of the urea water from the urea water supply device is stopped; and calculate, based on a difference (ΔT) between the first temperature and the second temperature, an ammonia calorific value (C) which is an amount of heat generated by the oxidation catalyst device by oxidation of ammonia which has been generated from the urea water supplied from the urea water supply device, and calculate an ammonia slip amount (S) from the selective reduction catalyst device group based on the ammonia calorific value. detect, by the downstream temperature detecting device, a first temperature (T1) which is a temperature of exhaust gas (Gc) which has passed through the exhaust gas purification treatment device during supply of urea water (U) from the urea water supply device; calculate, from preset data, a second temperature (T2) which is a temperature of exhaust gas (G) which has passed through the exhaust gas purification treatment device in a state where the engine is in a same operating state as when the first temperature is detected and the supply of the urea water from the urea water supply device is stopped; and calculate, based on a difference (ΔT) between the first temperature and the second temperature, an ammonia calorific value (C) which is an amount of heat generated by the oxidation catalyst device by oxidation of ammonia which has been generated from the urea water supplied from the urea water supply device, and calculate an ammonia slip amount (S) from the selective reduction catalyst device group based on the ammonia calorific value.
Computer implemented method for generating a model for determining a measurement error in a measurement of concentration of hydrogen that is contained in a gas mixture , wherein the gas mixture comprises hydrogen and a non-hydrogenous carrier gas mixture , wherein - data is provided regarding at least two different non-hydrogenous carrier gas mixture compositions, - different gas mixture compositions are generated based on the data , wherein in the case of different gas mixture compositions the non-hydrogenous carrier gas mixture composition and/or the hydrogen content are/is different, - for the gas mixture compositions, hydrogen concentration measured values are determined, and measurement errors are determined on the basis of the hydrogen concentration measured values, - a model is provided that maps data regarding carrier gas mixture compositions and hydrogen concentration measured values to measurement errors, characterised in that the non-hydrogenous carrier gas mixture is a natural gas mixture . - data is provided regarding at least two different non-hydrogenous carrier gas mixture compositions, - different gas mixture compositions are generated based on the data , wherein in the case of different gas mixture compositions the non-hydrogenous carrier gas mixture composition and/or the hydrogen content are/is different, - for the gas mixture compositions, hydrogen concentration measured values are determined, and measurement errors are determined on the basis of the hydrogen concentration measured values, - a model is provided that maps data regarding carrier gas mixture compositions and hydrogen concentration measured values to measurement errors,
Container transport device for transporting containers in a container handling system , comprising a chassis for supporting the container transport device on a track (FB), wherein a frame is arranged at the chassis , provided on which is at least one tray for transporting the containers in a height-adjustable manner, wherein the at least one tray comprises a transport surface (TF) with a plurality of transport elements arranged essentially parallel to one another for the intermediate storage and conveying of containers in rows, and wherein each of the transport elements , independently of the other transport elements , is configured such as to be capable of being controlled and/or regulated by means of a drive, preferably being capable of being driven in two different conveying directions, characterised in that a plurality of trays are provided at the frame ,which are configured such as to be height-adjustable independently of one another.
A first device for data propagation in a Distributed Node Consensus Protocol (DNCP) network , the first device comprising: an interface configured to: publish node data comprising data, a data identifier and a sequence number; provide the node data to requesting devices in the DNCP network; and receive acknowledgments of reception of the node data from the requesting devices , each acknowledgment comprising the data identifier and the sequence number of the node data; and at least one processor configured to determine that the node data has propagated through the network in case the smallest sequence number in the received acknowledgments is at least equal to the sequence number of the node data. publish node data comprising data, a data identifier and a sequence number; provide the node data to requesting devices in the DNCP network; and receive acknowledgments of reception of the node data from the requesting devices , each acknowledgment comprising the data identifier and the sequence number of the node data; and at least one processor configured to determine that the node data has propagated through the network in case the smallest sequence number in the received acknowledgments is at least equal to the sequence number of the node data.
An imaging system (1700; 1800) having a forward and rearward orientation, said system comprising: two or more parabolic reflectors (1701, 1702; 1801, 1802, 1803, 1804) having a base , a focus , and a reflector axis , said two or more parabolic reflectors (1701, 1702; 1801, 1802, 1803, 1804) defining a central reflector axis ; two or more light sources , wherein at least one light source is disposed near or essentially at said focus of each of said two or more parabolic reflectors (1701, 1702; 1801, 1802, 1803, 1804) forward of its base , and being configured to emit light toward said each of said two or more parabolic reflectors (1701, 1702; 1801, 1802, 1803, 1804) such that said each of said two or more parabolic reflectors (1701, 1702; 1801, 1802, 1803, 1804) reflects said light to emit a beam of light ; and an imaging device (1703; 1906) disposed within said two or more parabolic reflectors (1701, 1702; 1801, 1802, 1803, 1804), and comprising a zooming lens having an optical axis essentially coincident with said central reflector axis , said imaging device (1703; 1906) configured to image a field of view along said optical axis forward of said imaging device (1703; 1906). two or more parabolic reflectors (1701, 1702; 1801, 1802, 1803, 1804) having a base , a focus , and a reflector axis , said two or more parabolic reflectors (1701, 1702; 1801, 1802, 1803, 1804) defining a central reflector axis ; two or more light sources , wherein at least one light source is disposed near or essentially at said focus of each of said two or more parabolic reflectors (1701, 1702; 1801, 1802, 1803, 1804) forward of its base , and being configured to emit light toward said each of said two or more parabolic reflectors (1701, 1702; 1801, 1802, 1803, 1804) such that said each of said two or more parabolic reflectors (1701, 1702; 1801, 1802, 1803, 1804) reflects said light to emit a beam of light ; and an imaging device (1703; 1906) disposed within said two or more parabolic reflectors (1701, 1702; 1801, 1802, 1803, 1804), and comprising a zooming lens having an optical axis essentially coincident with said central reflector axis , said imaging device (1703; 1906) configured to image a field of view along said optical axis forward of said imaging device (1703; 1906).
Reading method of a lateral flow test comprising: - using a cassette that has a window through which a test strip arranged in the cassette is observed, the test strip having a reactive zone (RZ) with at least one test line (T) and one control line (C), - using a reader that has a housing for receiving the cassette , the reader having an optical unit with a light emitter for illuminating the cassette and a sensor for receiving the light reflected, or emitted, by the cassette , - manually moving the cassette in the housing of the reader , - obtaining with the sensor an output signal (S) comprising luminous intensity values of the light reflected, or emitted, by the cassette during the time that the cassette moves, - normalizing the luminous intensity values of the output signal (S) of the sensor in a range (R) defined between a lower value and a higher value, and - identifying peaks in the output signal (S) of the sensor , said peaks corresponding with the test line (T) and the control line (C), characterized in that the lower value and the higher value are established between the light reflected, or emitted, by the cassette outside the window , and the light reflected, or emitted, by the test strip outside the reactive zone (RZ), wherein the lower value corresponds with the light reflected, or emitted, by the cassette outside the window , and the higher value corresponds with the light reflected, or emitted, by the test strip outside the reactive zone (RZ), and wherein the cassette has a different color than the test strip which causes the luminous intensity of the light reflected, or emitted, by the cassette outside the window to be different from the luminous intensity of the light reflected, or emitted, by the test strip outside the reactive zone (RZ). - using a cassette that has a window through which a test strip arranged in the cassette is observed, the test strip having a reactive zone (RZ) with at least one test line (T) and one control line (C), - using a reader that has a housing for receiving the cassette , the reader having an optical unit with a light emitter for illuminating the cassette and a sensor for receiving the light reflected, or emitted, by the cassette , - manually moving the cassette in the housing of the reader , - obtaining with the sensor an output signal (S) comprising luminous intensity values of the light reflected, or emitted, by the cassette during the time that the cassette moves, - normalizing the luminous intensity values of the output signal (S) of the sensor in a range (R) defined between a lower value and a higher value, and - identifying peaks in the output signal (S) of the sensor , said peaks corresponding with the test line (T) and the control line (C),
A sampler comprising a sample chamber for a sample forming from a molten material, having at least one lower cooling body , at least one upper cooling body , and at least one inner cooling body , and at least one filling part, wherein the sample chamber is surrounded jointly at least by the lower cooling body and by the inner cooling body , so that at least the sample chamber can be cooled by at least the lower and inner cooling body , wherein the filling part, which is connected to the sample chamber , leads into the sample chamber with a filling opening , and wherein the cooling bodies each have an outer surface , characterised in that , between a region of the outer surface of the inner cooling body and the region of the outer surface of the upper cooling body located opposite said region of the outer surface of the inner cooling body , the sampler has at least one gap for the guide-through of at least one gas, and that the volume of the respective cooling body is larger than the volume of the gap , that at least one of the cooling bodies has at least one ventilation opening , and that the ventilation opening can be closed by means of at least one closure, which can be opened, preferably a membrane , which can be opened, wherein the closure opens while or after the molten material is filled into the sample chamber .