mhurhangee/patent-ind-claim-en huggingface dataset:
Device for extracorporeal blood treatment, comprising: at least a first acid concentrate connection which is configured to feed at least a first acid concentrate (AC1) into the device for extracorporeal blood treatment as a basis for generating a dialysate; and at least a second acid concentrate connection which is configured to feed at least a second acid concentrate (AC2) into the device for extracorporeal blood treatment as a basis for generating a dialysate; wherein the device for extracorporeal blood treatment is configured to switch over at a predetermined time during an ongoing blood treatment or after a predetermined period of time from feeding the at least first acid concentrate (AC1) to feeding the at least second acid concentrate (AC2), wherein a bicarbonate connection of the device is configured as the first or the second acid concentrate connection in such a way that the first or the second acid concentrate (AC1, AC2) can be supplied to the device via the bicarbonate connection, and bicarbonate (BI) can be supplied separately from the bicarbonate connection, characterized in that the device is configured to protocol a concentrate changeover time in the course of an ongoing treatment and to save and make this available as a predefined time for at least one subsequent treatment. at least a first acid concentrate connection which is configured to feed at least a first acid concentrate (AC1) into the device for extracorporeal blood treatment as a basis for generating a dialysate; and at least a second acid concentrate connection which is configured to feed at least a second acid concentrate (AC2) into the device for extracorporeal blood treatment as a basis for generating a dialysate; wherein the device for extracorporeal blood treatment is configured to switch over at a predetermined time during an ongoing blood treatment or after a predetermined period of time from feeding the at least first acid concentrate (AC1) to feeding the at least second acid concentrate (AC2), wherein a bicarbonate connection of the device is configured as the first or the second acid concentrate connection in such a way that the first or the second acid concentrate (AC1, AC2) can be supplied to the device via the bicarbonate connection, and bicarbonate (BI) can be supplied separately from the bicarbonate connection, characterized in that the device is configured to protocol a concentrate changeover time in the course of an ongoing treatment and to save and make this available as a predefined time for at least one subsequent treatment.
A method for aligning a biological sample to a reagent array, the method comprising: receiving, by a data processor, sample image data comprising a sample image of the biological sample, the sample image having a first resolution; receiving, by the data processor, array image data comprising an array image comprising an overlay of a reagent array and an array fiducial frame with the biological sample, the array image having a second resolution lower than the first resolution of the sample image, wherein the array fiducial frame comprises a plurality of individual array fiducials in a patterned arrangement surrounding the reagent array; registering, by the data processor, the sample image to the array image by aligning the sample image and the array image using the array fiducial frame; generating, by the data processor, an aligned image based on the registering, the aligned image comprising an overlay of the sample image with the reagent array; and providing, by the data processor, the aligned image. receiving, by a data processor, sample image data comprising a sample image of the biological sample, the sample image having a first resolution; receiving, by the data processor, array image data comprising an array image comprising an overlay of a reagent array and an array fiducial frame with the biological sample, the array image having a second resolution lower than the first resolution of the sample image, wherein the array fiducial frame comprises a plurality of individual array fiducials in a patterned arrangement surrounding the reagent array; registering, by the data processor, the sample image to the array image by aligning the sample image and the array image using the array fiducial frame; generating, by the data processor, an aligned image based on the registering, the aligned image comprising an overlay of the sample image with the reagent array; and providing, by the data processor, the aligned image.
A cannula insertion system to insert a cannula into a human or animal body, comprising: one or more sensors to determine a suitable location for insertion of the cannula, a cannula insertion device configured to insert the cannula into the human or animal body, a cannula insertion device positioning system to support and position the cannula insertion device, and a control device arranged to control the positioning system to position, on the basis of the determined location for insertion of the cannula, the cannula insertion device in a suitable position to insert the cannula into human or animal body, wherein the cannula insertion system comprises a blood collection system to collect blood in one or more blood collection tubes supported by the blood collection system, characterized in that, the blood collection system is movably arranged to at least partly follow movements of the cannula insertion device . one or more sensors to determine a suitable location for insertion of the cannula, a cannula insertion device configured to insert the cannula into the human or animal body, a cannula insertion device positioning system to support and position the cannula insertion device, and a control device arranged to control the positioning system to position, on the basis of the determined location for insertion of the cannula, the cannula insertion device in a suitable position to insert the cannula into human or animal body, wherein the cannula insertion system comprises a blood collection system to collect blood in one or more blood collection tubes supported by the blood collection system, characterized in that, the blood collection system is movably arranged to at least partly follow movements of the cannula insertion device .
Domestic appliance for steaming laundry comprising a control button (B) connected to a control module controlling the diffusion of steam through the steam outlet holes provided on the appliance, the control button (B) for starting a first steam flow, called a standard steam flow, or a second steam flow, called a specific steam flow, depending on the way it is actuated, said specific steam flow having characteristics different from those of the standard steam flow, characterised in that said control module orders the diffusion of the specific steam flow when the control button (B) is actuated three times in a time period less than a predetermined time t 1 .
Method for the production of a concrete double-wall element , comprising a first concrete shell and a second concrete shell with the steps: a. pouring of liquid concrete and placing connectors section by section protruding from this liquid concrete in a cavity formed by a formwork on a first pallet (step B); b. curing of the liquid concrete layer with the connectors to create a first concrete shell (step C); c. pouring of liquid concrete in a cavity formed by a formwork on a second pallet (step D); d. turning of the first concrete shell (step E) and placing on the liquid concrete layer of the second pallet (step F); e. curing of the liquid concrete layer on the second pallet to create a concrete shell firmly connected to the first concrete shell via the connectors (step G), whereby f. a fixing device is inserted into the liquid concrete in such a way in step B that a first end section of the fixing device is embedded in the liquid concrete and a second end section protrudes laterally from the formwork , g. and in the course of placing the first concrete shell on the liquid concrete layer of the second pallet (step F) an anchor element on the second end section of the fixing device is fixed to the second pallet . a. pouring of liquid concrete and placing connectors section by section protruding from this liquid concrete in a cavity formed by a formwork on a first pallet (step B); b. curing of the liquid concrete layer with the connectors to create a first concrete shell (step C); c. pouring of liquid concrete in a cavity formed by a formwork on a second pallet (step D); d. turning of the first concrete shell (step E) and placing on the liquid concrete layer of the second pallet (step F); e. curing of the liquid concrete layer on the second pallet to create a concrete shell firmly connected to the first concrete shell via the connectors (step G), whereby f. a fixing device is inserted into the liquid concrete in such a way in step B that a first end section of the fixing device is embedded in the liquid concrete and a second end section protrudes laterally from the formwork , g. and in the course of placing the first concrete shell on the liquid concrete layer of the second pallet (step F) an anchor element on the second end section of the fixing device is fixed to the second pallet .
A method for performing computed tomography (CT) imaging with automatic tube potential selection, the method comprising the steps of: disposing a subject to be imaged in a CT system; selecting a scanning technique to be performed for a diagnostic task, wherein the scanning technique includes a reference tube potential corresponding to a reference dose level and a desired image quality level; selecting a noise-constraint parameter according to a noise range above the reference dose level that maintains the desired image quality level for the diagnostic task; determining a tube potential for the CT system and an associated dose efficiency by: generating relative dose factors (RDFs) for a range of tube potentials based on a characteristic of the subject and the noise-constraint parameter, wherein the RDFs correspond to a range of doses relative to the reference dose level, and wherein a smallest RDF for the range of tube potentials corresponds to the most dose efficiency, and selecting the tube potential with the most dose efficiency; and performing a CT scan using the scanning technique and the tube potential determined for the CT system. disposing a subject to be imaged in a CT system; selecting a scanning technique to be performed for a diagnostic task, wherein the scanning technique includes a reference tube potential corresponding to a reference dose level and a desired image quality level; selecting a noise-constraint parameter according to a noise range above the reference dose level that maintains the desired image quality level for the diagnostic task; determining a tube potential for the CT system and an associated dose efficiency by: generating relative dose factors (RDFs) for a range of tube potentials based on a characteristic of the subject and the noise-constraint parameter, wherein the RDFs correspond to a range of doses relative to the reference dose level, and wherein a smallest RDF for the range of tube potentials corresponds to the most dose efficiency, and selecting the tube potential with the most dose efficiency; and generating relative dose factors (RDFs) for a range of tube potentials based on a characteristic of the subject and the noise-constraint parameter, wherein the RDFs correspond to a range of doses relative to the reference dose level, and wherein a smallest RDF for the range of tube potentials corresponds to the most dose efficiency, and selecting the tube potential with the most dose efficiency; and performing a CT scan using the scanning technique and the tube potential determined for the CT system.
A method for generating an output image from a plurality, N, of corresponding input image channels, the method comprising: determining a Jacobian matrix for a discrete image location, the Jacobian matrix being an Nx2 matrix having first and second columns comprising, respectively, the per channel x and y derivatives of the plurality of corresponding input image channels; calculating the principal characteristic vector of the outer product of the Jacobian matrix; setting the sign associated with the principal characteristic vector whereby an input image channel pixel projected by the principal characteristic vector results in a positive scalar value; and, generating the output image as a per-pixel projection of the input channels in the direction of the principal characteristic vector at the respective image location. determining a Jacobian matrix for a discrete image location, the Jacobian matrix being an Nx2 matrix having first and second columns comprising, respectively, the per channel x and y derivatives of the plurality of corresponding input image channels; calculating the principal characteristic vector of the outer product of the Jacobian matrix; setting the sign associated with the principal characteristic vector whereby an input image channel pixel projected by the principal characteristic vector results in a positive scalar value; and, generating the output image as a per-pixel projection of the input channels in the direction of the principal characteristic vector at the respective image location.
A unidirectional reinforcement for the manufacture of fiber reinforced composites by one of resin transfer molding process and vacuum infusion molding process, the unidirectional reinforcement comprising continuous unidirectional rovings arranged in a longitudinal direction of the reinforcement and bonded to each other by a thermoplastic and/or thermoset binder, the reinforcement having a top surface and a bottom surface and being provided with means for facilitating, when wetting-out a stack of reinforcements , the impregnation of the reinforcement with resin in a direction transverse to the direction of the unidirectional rovings, whereby the impregnation facilitating means are thin discrete means for forming flow passages for resin arranged transverse to the unidirectional rovings, the thin discrete flow passage forming means forming to the sides thereof transverse flow passages extending from one longitudinal edge of the unidirectional reinforcement to the opposite longitudinal edge thereof, and that the thin discrete flow passage forming means are secured on the unidirectional rovings by means of additional yarns laid on the unidirectional rovings, running on and transverse to the thin discrete flow passage forming means and being bonded to at least the unidirectional rovings, characterized in that the additional yarns are arranged at a lateral distance of 10 to 35 mm from one another.
A synthetic antenna sonar intended to move along a first axis (X1), the sonar comprising an emission device configured to emit, on each recurrence, at least one acoustic pulse to an observed area in a sectored set comprising at least one sector, the sonar comprising a first physical reception antenna extending along the first axis (X1) for acquiring measurements of backscattered signals originating from said pulse, and a processing device configured to form, on R recurrences for each sector of the sectored set, synthetic antenna channels from measurements of signals backscattered by the observed area originating from acoustic pulses emitted in said sector, the sonar comprising at least one gyrometer, said processing device being configured so as to correct the variations of the movement of the first reception antenna during the formation of the synthetic antenna channels of said sectored set by performing a self-calibration by cross-correlation of the successive recurrences, using rotation measurements of the first reception antenna obtained with said at least one gyrometer and using estimates of elevation angles of backscattered signals for determining image planes of the backscattered signals and for projecting said rotation measurements onto said image planes, the obtained projections being used to perform the self-calibration, characterised in that , in said processing device during the formation of the synthetic antenna channels of at least one sector of the sectored set, called bathymetric sector, estimates of elevation angles of backscattered signals are used that are obtained from a bathymetric map comprising the three-dimensional positions, defined in the terrestrial reference frame, of a plurality of points of the observed zone.
A cell culture vessel , comprising: a vessel body that defines a cell culture chamber enclosed between a bottom wall and a top wall , wherein a cell culture surface is located along the bottom wall , the cell culture surface comprising a microcavity substrate that defines a plurality of microcavities sized and configured to receive cells therein; a support column within the cell culture chamber extending between the top wall and the bottom wall ; a stabilizer device covering a width and length of the cell culture chamber having a column engaging structure that is sized to slidingly engage the support column such that the stabilizer device is movable along the support column as a liquid culture medium is received in the cell culture chamber ; wherein the support column guides the stabilizer device along a length of the support column as the stabilizer device rises with rising liquid level in the cell culture chamber during a liquid culture medium filling operation. a vessel body that defines a cell culture chamber enclosed between a bottom wall and a top wall , wherein a cell culture surface is located along the bottom wall , the cell culture surface comprising a microcavity substrate that defines a plurality of microcavities sized and configured to receive cells therein; a support column within the cell culture chamber extending between the top wall and the bottom wall ; a stabilizer device covering a width and length of the cell culture chamber having a column engaging structure that is sized to slidingly engage the support column such that the stabilizer device is movable along the support column as a liquid culture medium is received in the cell culture chamber ; wherein the support column guides the stabilizer device along a length of the support column as the stabilizer device rises with rising liquid level in the cell culture chamber during a liquid culture medium filling operation.
A sealing apparatus comprising: a slinger having a cylindrical part configured to be mounted on an outer peripheral surface of a rotational shaft that rotates relative to a housing and an annular flange part comprising a flange portion that extends from an inner end part of the cylindrical part in a direction that is perpendicular to an axis (x) of the rotational shaft, and an inclined flange portion that extends from an end part on the outer peripheral side of the flange portion , and is formed integrally with the vertical flange portion ; and a seal part configured to be mounted on the housing and having a main lip configured to contact slidably an outer side surface of the flange part of the slinger to thereby seal lubricant inside an engine interior of the housing, wherein a groove configured to exhibit a discharging action of returning the lubricant to the engine interior side of the housing when the rotational shaft rotates is formed at a part on the outer side surface of the flange part that contacts the main lip , characterized in that a narrowing and miniaturizing structure configured to reduce a relative contact angle (θ1) that is formed by the flange part and the main lip when the outer side surface of the flange part contacts the main lip is formed between the flange part and the main lip , the contact angle (θ1) is 17 degrees or smaller, and the narrowing and miniaturizing structure is formed by the inclined flange part where the flange part of the slinger is inclined and by the main lip . a slinger having a cylindrical part configured to be mounted on an outer peripheral surface of a rotational shaft that rotates relative to a housing and an annular flange part comprising a flange portion that extends from an inner end part of the cylindrical part in a direction that is perpendicular to an axis (x) of the rotational shaft, and an inclined flange portion that extends from an end part on the outer peripheral side of the flange portion , and is formed integrally with the vertical flange portion ; and a seal part configured to be mounted on the housing and having a main lip configured to contact slidably an outer side surface of the flange part of the slinger to thereby seal lubricant inside an engine interior of the housing, wherein a groove configured to exhibit a discharging action of returning the lubricant to the engine interior side of the housing when the rotational shaft rotates is formed at a part on the outer side surface of the flange part that contacts the main lip , characterized in that a narrowing and miniaturizing structure configured to reduce a relative contact angle (θ1) that is formed by the flange part and the main lip when the outer side surface of the flange part contacts the main lip is formed between the flange part and the main lip , the contact angle (θ1) is 17 degrees or smaller, and the narrowing and miniaturizing structure is formed by the inclined flange part where the flange part of the slinger is inclined and by the main lip .
An additively manufactured combustor shell , comprising: a radially outward surface ; a radially inward surface opposite the radially outward surface ; characterized in that the combustor shell further comprises an injector port defining a fuel injection channel , the injector port comprising: an inlet structure extending from the radially outward surface ; an outlet structure extending from the radially inward surface ; and a support structure extending between the outlet structure and the radially inward surface , wherein the support structure is configured to vaporize at a temperature of 1093° Celsius (2000 ° Fahtrenheit). a radially outward surface ; a radially inward surface opposite the radially outward surface ; characterized in that the combustor shell further comprises an injector port defining a fuel injection channel , the injector port comprising: an inlet structure extending from the radially outward surface ; an outlet structure extending from the radially inward surface ; and a support structure extending between the outlet structure and the radially inward surface , wherein the support structure is configured to vaporize at a temperature of 1093° Celsius (2000 ° Fahtrenheit). an inlet structure extending from the radially outward surface ; an outlet structure extending from the radially inward surface ; and a support structure extending between the outlet structure and the radially inward surface , wherein the support structure is configured to vaporize at a temperature of 1093° Celsius (2000 ° Fahtrenheit).
A method for bundling acknowledgement/negative acknowledgment, ACK/NACK, feedback in a time division duplex long-term evolution, LTE, system, comprising bundling acknowledgement/negative acknowledgment, ACK/NACK, feedback determined for a plurality of subframes within a time window into at least two sets of feedback information based on differently timed bundling windows defined based on subframe types, characterised in that one bundling window covers system information block 1 configured downlink subframes or system information block 1 configured downlink subframes and special subframes and where another bundling window covers other downlink subframes.
Paste paint coating in aqueous phase comprising a color indicator used as a work monitoring indicator, characterized in that the color indicator is phenolsulfonephthalein and in that the coating has a pH comprised between 7,6 and 10 and contains 0.0001 to 0.001% of phenolsulfonephthalein.