mhurhangee/patent-ind-claim-en huggingface dataset:
An image processing apparatus comprising: a movement estimation unit that estimates, on a basis of a first timestamp provided to an image captured by synchronous scanning, an event signal generated corresponding to an intensity change of light at one or a plurality of pixels of the image, and a second timestamp that is provided to the event signal and is in synchronism with the first timestamp, a movement of an imaging target in the image; an inverse filter generation unit that generates an inverse filter on a basis of the movement; and a filter application unit that applies the inverse filter to the image, wherein the movement estimation unit estimates a movement region in which the movement of the imaging target has occurred in the image, and the inverse filter generation unit generates the inverse filter that acts in a limited way on the movement region of the image but not on the overall image. a movement estimation unit that estimates, on a basis of a first timestamp provided to an image captured by synchronous scanning, an event signal generated corresponding to an intensity change of light at one or a plurality of pixels of the image, and a second timestamp that is provided to the event signal and is in synchronism with the first timestamp, a movement of an imaging target in the image; an inverse filter generation unit that generates an inverse filter on a basis of the movement; and a filter application unit that applies the inverse filter to the image, wherein the movement estimation unit estimates a movement region in which the movement of the imaging target has occurred in the image, and the inverse filter generation unit generates the inverse filter that acts in a limited way on the movement region of the image but not on the overall image.
A method comprising: placing a thermoset composite charge within a die cavity of an induction tool , wherein the induction tool comprises a first tooling die and a second tooling die movable with respect to each other, and wherein the first tooling die and the second tooling die form the die cavity , the first tooling die and the second tooling die comprising a plurality of stacked metal sheets , a plurality of air gaps defined between adjacent stacked metal sheets; heating the thermoset composite charge within the die cavity to a forming temperature using a second smart susceptor material within the die cavity ; moving the thermoset composite charge within the die cavity towards a first smart susceptor surface connected to the first tooling die after heating the thermoset composite charge to the forming temperature; applying pressure to the thermoset composite charge using a flexible membrane to conform the thermoset composite charge to the first smart susceptor surface ; and heating the thermoset composite charge to a curing temperature using the first smart susceptor surface . placing a thermoset composite charge within a die cavity of an induction tool , wherein the induction tool comprises a first tooling die and a second tooling die movable with respect to each other, and wherein the first tooling die and the second tooling die form the die cavity , the first tooling die and the second tooling die comprising a plurality of stacked metal sheets , a plurality of air gaps defined between adjacent stacked metal sheets; heating the thermoset composite charge within the die cavity to a forming temperature using a second smart susceptor material within the die cavity ; moving the thermoset composite charge within the die cavity towards a first smart susceptor surface connected to the first tooling die after heating the thermoset composite charge to the forming temperature; applying pressure to the thermoset composite charge using a flexible membrane to conform the thermoset composite charge to the first smart susceptor surface ; and heating the thermoset composite charge to a curing temperature using the first smart susceptor surface .
Chain-driven steering angle sensor comprising a housing and a cover , used to enclose: - A processing unit ; - A gear assembly, formed by a hub ; to couple to a rotatable component whose rotation angle is to be measured, and by at least two magnetic gears ; - A timing-chain , coupling the hub and the at least two magnetic gears ; characterized by : - Rollers ; - Chain guides ; wherein the rollers are positioned around the gear assembly to provide a tangential contact between the timing-chain and the hub and between the timing-chain and each magnetic gear . - A processing unit ; - A gear assembly, formed by a hub ; to couple to a rotatable component whose rotation angle is to be measured, and by at least two magnetic gears ; - A timing-chain , coupling the hub and the at least two magnetic gears ; - Rollers ; - Chain guides ;
A method of applying a transparent foil material on a gable roof of a greenhouse, wherein the gable roof comprises a roof frame including two gutter profiles , a ridge profile and two intermediate profiles extending parallel to each other, wherein the intermediate profiles are located between the ridge profile and the respective gutter profiles , wherein at either side of the ridge profile the gutter profile , the ridge profile and the intermediate profile are interconnected through lateral beams extending in transverse direction of said profiles (2-4), wherein the roof also comprises two window frames , located at either side of the ridge profile , each window frame having an upper window beam which is mounted to the ridge profile and rotatable with respect to the ridge profile about a pivot axis (PA) extending in longitudinal direction of the ridge profile and a lower window beam located at a distance from the upper window beam , wherein each window frame is rotatable between a closed position in which the lower window beam lies at the intermediate profile and an open position in which the lower window beam lies at a distance from the intermediate profile above the intermediate profile and the window frame has a less inclined orientation than in its closed position, wherein the method comprises the steps of: positioning the window frames in their open positions; laying a single piece of the foil material onto both window frames ; subsequently, fixing said piece to the lower window beams , wherein the piece of the foil material is stretched in longitudinal direction of the ridge profile before the step of fixing. positioning the window frames in their open positions; laying a single piece of the foil material onto both window frames ; subsequently, fixing said piece to the lower window beams ,
A gas cylinder assembly , comprising: an outer shell defining an interior chamber and comprising an outlet in fluid communication with the interior chamber; a heat exchanger disposed within the interior chamber, wherein the heat exchanger comprises an inner bore and a heat exchanger spoke extending radially outward from the heat exchanger and wherein the heat exchanger and the heat exchanger spoke are in fluid communication with the outlet ; and a pyrotechnic composition disposed within the inner bore . an outer shell defining an interior chamber and comprising an outlet in fluid communication with the interior chamber; a heat exchanger disposed within the interior chamber, wherein the heat exchanger comprises an inner bore and a heat exchanger spoke extending radially outward from the heat exchanger and wherein the heat exchanger and the heat exchanger spoke are in fluid communication with the outlet ; and a pyrotechnic composition disposed within the inner bore .
A lead receptacle comprising: a lumen configured to traverse from an outer side of an outermost intercostal muscle to an inner side of an innermost intercostal muscle of an intercostal space of a patient and to support a lead traversing through the lumen, wherein the lumen is configured to support one or more cardiac leads traversing through the intercostal space and the lead receptacle is configured to be fixed for chronic implantation in the intercostal space and includes at least one of: a screw or one or more fixation flanges.
A valve suitable for implantation into a human or animal, the valve comprising one or more leaflets , characterized in that the leaflets are constructed from a layer of a material which has a surface porosity of about 1% to less than 15%, wherein the one or more leaflets comprise more than one layer of the material, and wherein at least two layers of the one or more layer are anisotropic.
An article of manufacture, comprising: an extrusion-foamed polymeric composition comprising an ethylene-based polymer and an olefin-based elastomer; and wherein the ethylene-based polymer has a density of at least 0.91 g/cm 3 , wherein the elastomer has a density of less than 0.91 g/cm 3 , wherein the extrusion-foamed polymeric composition has a foaming ratio of at least 20 percent, wherein the extrusion-foamed polymeric composition has a DMA storage modulus at 0 C of less than 130 MPa and a density in the range of from 0.35 to 0.7 g/cm 3 ; and wherein the ethylene-based polymer is a low-density polyethylene homopolymer, wherein the olefin-based elastomer is selected from the group consisting of an ethylene/alpha-olefin interpolymer, an olefin block copolymer, an olefin block composite, an ethylene-propylene-diene monomer (EPDM), and combinations of two or more thereof; wherein DMA storage modulus is measured as described in the description; and wherein the foaming ratio is determined as described in the description. an extrusion-foamed polymeric composition comprising an ethylene-based polymer and an olefin-based elastomer; and wherein the ethylene-based polymer has a density of at least 0.91 g/cm 3 , wherein the elastomer has a density of less than 0.91 g/cm 3 , wherein the extrusion-foamed polymeric composition has a foaming ratio of at least 20 percent, wherein the extrusion-foamed polymeric composition has a DMA storage modulus at 0 C of less than 130 MPa and a density in the range of from 0.35 to 0.7 g/cm 3 ; and wherein the ethylene-based polymer is a low-density polyethylene homopolymer, wherein the olefin-based elastomer is selected from the group consisting of an ethylene/alpha-olefin interpolymer, an olefin block copolymer, an olefin block composite, an ethylene-propylene-diene monomer (EPDM), and combinations of two or more thereof; wherein DMA storage modulus is measured as described in the description; and wherein the foaming ratio is determined as described in the description.
A rain/liquid sensor comprising: - a light transmitter having at least one LED which is arranged to transmit light of a certain intensity, - a light receiver which is arranged to receive the transmitted light after it has travelled through the outside air and convert it to an electric output signal which contains a measure of the absorption of the transmitted light signal experienced in the outside air , and - a circuit with a first input connected to the light receiver and an output for supplying an electric signal which comprises a measure of a current quantity of falling liquid or rain in the outside air per unit of time, characterized in that the circuit is a differential circuit having a second input connected to the light transmitter for supplying an electric differential signal based on signals on both said inputs , and the rain sensor further comprises an element for adjusting the transmitting current and a daylight sensor connected to said element , which daylight sensor measures the intensity of daylight in the outside air and uses this measurement to adjust, together with the adjusting element arranged for this purpose, the intensity of the light transmitted by the LED . - a light transmitter having at least one LED which is arranged to transmit light of a certain intensity, - a light receiver which is arranged to receive the transmitted light after it has travelled through the outside air and convert it to an electric output signal which contains a measure of the absorption of the transmitted light signal experienced in the outside air , and - a circuit with a first input connected to the light receiver and an output for supplying an electric signal which comprises a measure of a current quantity of falling liquid or rain in the outside air per unit of time, the circuit is a differential circuit having a second input connected to the light transmitter for supplying an electric differential signal based on signals on both said inputs , and the rain sensor further comprises an element for adjusting the transmitting current and a daylight sensor connected to said element , which daylight sensor measures the intensity of daylight in the outside air and uses this measurement to adjust, together with the adjusting element arranged for this purpose, the intensity of the light transmitted by the LED .
An Electronic Control Unit (ECU) for controlling electronics in a vehicle comprising at least one Integrated Circuit (IC) attached to a Printed Circuit Board (PCB) on top of said IC is located a first layer adjacent to the IC and a second layer more distant from the IC , wherein said first layer and said second layer are made of a material having a high thermal conductivity, e.g. metal, and at least one of said first layer and second layer forms part of a housing of the ECU wherein said first layer and second layer are spaced apart from each other such that a first void space is defined between the first layer and the second layer allowing a fluid to flow in the first void space wherein said first void space is also provided with side walls in the area on top of said IC and together with said first layer and said second layer define a compartment built up on top of the IC , the compartment being made by the side walls extending between said first layer and said second layer , the compartment having a compartment inlet and compartment outlet connected to a fluid channel system in said first void space in the ECU comprising a liquid phase media, said ECU further comprising a third layer located on top of the second layer defining a second void space , between the second layer and the third layer , in which a flow of air is induced.
A latch assembly comprising: a frame; a pawl including a surface for receiving a striker and being movably coupled to the frame between an open and a closed position, wherein, in the closed position, the pawl is positioned to retain the striker to the latch assembly, and, in the open position, the pawl is not positioned to retain the striker to the latch assembly; a trigger that is mounted to the frame and is movable between a locked position and an unlocked position, wherein, in the locked position of the trigger , the trigger is positioned to retain the pawl in the closed position; a striker bar that is movably coupled to the trigger and is positioned to be contacted by the striker , wherein the striker bar is configured to move in the course of moving the striker into the pawl ; and means for sensing a position of the striker bar , wherein the position of the striker bar is indicative of the position of the striker and the position of the trigger . a frame; a pawl including a surface for receiving a striker and being movably coupled to the frame between an open and a closed position, wherein, in the closed position, the pawl is positioned to retain the striker to the latch assembly, and, in the open position, the pawl is not positioned to retain the striker to the latch assembly; a trigger that is mounted to the frame and is movable between a locked position and an unlocked position, wherein, in the locked position of the trigger , the trigger is positioned to retain the pawl in the closed position; a striker bar that is movably coupled to the trigger and is positioned to be contacted by the striker , wherein the striker bar is configured to move in the course of moving the striker into the pawl ; and means for sensing a position of the striker bar , wherein the position of the striker bar is indicative of the position of the striker and the position of the trigger .
Sewing machine , - with a housing , - with a driven movable thread knife for cutting at least one sewing thread, - with a counter-blade co-operating with the thread knife , - wherein the counter-blade is mounted in a housing-fixed counter-blade holder , characterized in that - the counter-blade in the housing-fixed counter-blade holder is arranged in a position range between -- a first stop counter-blade position (19 1 ) in the counter-blade holder and -- a second stop counter-blade position (19 2 ) in the counter-blade holder that is displaced relative thereto - is continuously adjustable in a cutting counter-blade position, - wherein the continuous adjustment takes place when the counter-blade interacts with the thread knife during the thread cut. - with a housing , - with a driven movable thread knife for cutting at least one sewing thread, - with a counter-blade co-operating with the thread knife , - wherein the counter-blade is mounted in a housing-fixed counter-blade holder , characterized in that - the counter-blade in the housing-fixed counter-blade holder is arranged in a position range between -- a first stop counter-blade position (19 1 ) in the counter-blade holder and -- a second stop counter-blade position (19 2 ) in the counter-blade holder that is displaced relative thereto -- a first stop counter-blade position (19 1 ) in the counter-blade holder and -- a second stop counter-blade position (19 2 ) in the counter-blade holder that is displaced relative thereto - is continuously adjustable in a cutting counter-blade position, - wherein the continuous adjustment takes place when the counter-blade interacts with the thread knife during the thread cut.
Method for operating a gas sensor comprising a sensing element of a material including metal oxide and being sensitive to a target gas and to a recalibration gas different from the target gas, the method comprising the step of: recalibrating the gas sensor in a recalibration environment (E3) showing a recalibration gas baseline concentration (c BaseRG ) and a target gas concentration (c sens ) in a baseline range by measuring an associated electrical resistance of the sensing element , wherein the material of the sensing element is selected such that for a target gas concentration (c sens ) in a target range a sensor response of the sensing element exceeds its sensor response for a recalibration gas concentration in a baseline range, and for a target gas concentration (c sens ) in a baseline range the sensor response of the sensing element is less than its sensor response for a recalibration gas concentration in the baseline range, wherein the material of the sensing element is Pd-doped SnO2 with at least approximately 1% Pd. recalibrating the gas sensor in a recalibration environment (E3) showing a recalibration gas baseline concentration (c BaseRG ) and a target gas concentration (c sens ) in a baseline range by measuring an associated electrical resistance of the sensing element , wherein the material of the sensing element is selected such that for a target gas concentration (c sens ) in a target range a sensor response of the sensing element exceeds its sensor response for a recalibration gas concentration in a baseline range, and for a target gas concentration (c sens ) in a baseline range the sensor response of the sensing element is less than its sensor response for a recalibration gas concentration in the baseline range, for a target gas concentration (c sens ) in a target range a sensor response of the sensing element exceeds its sensor response for a recalibration gas concentration in a baseline range, and for a target gas concentration (c sens ) in a baseline range the sensor response of the sensing element is less than its sensor response for a recalibration gas concentration in the baseline range, wherein the material of the sensing element is Pd-doped SnO2 with at least approximately 1% Pd.
Method for producing electronic assemblies which comprises the following steps: a) applying a fluid printing medium in a structured manner by means of a printing device , - wherein step a) is carried out multiple times consecutively in a sequential series of individual printing steps a i ), b) measuring at least one rheological property of the printing medium within the printing device , - wherein step b) is carried out in an automated repeated series of individual measurement steps b n ) during the individual printing steps a i ) and/or between the individual printing steps a i ), c) providing a computer-implemented rheological model (M), in particular a computer-implemented rheological simulation model (M), for the execution of the individual printing steps a i ), - wherein the rheological model (M) uses the repeatedly measured rheological property as a variable input parameter, d) determining a favorable value for at least one selected printing parameter with the aid of the rheological model (M) in accordance with the currently measured rheological property, e) automatically setting the determined favorable value for the at least one selected printing parameter. a) applying a fluid printing medium in a structured manner by means of a printing device , - wherein step a) is carried out multiple times consecutively in a sequential series of individual printing steps a i ), - wherein step a) is carried out multiple times consecutively in a sequential series of individual printing steps a i ), b) measuring at least one rheological property of the printing medium within the printing device , - wherein step b) is carried out in an automated repeated series of individual measurement steps b n ) during the individual printing steps a i ) and/or between the individual printing steps a i ), - wherein step b) is carried out in an automated repeated series of individual measurement steps b n ) during the individual printing steps a i ) and/or between the individual printing steps a i ), c) providing a computer-implemented rheological model (M), in particular a computer-implemented rheological simulation model (M), for the execution of the individual printing steps a i ), - wherein the rheological model (M) uses the repeatedly measured rheological property as a variable input parameter, - wherein the rheological model (M) uses the repeatedly measured rheological property as a variable input parameter, d) determining a favorable value for at least one selected printing parameter with the aid of the rheological model (M) in accordance with the currently measured rheological property, e) automatically setting the determined favorable value for the at least one selected printing parameter.