mhurhangee/ep-ind-claims huggingface dataset:
Method of treating a sheet in a printing machine wherein, in a first step, a front side of the sheet is printed on by means of an inkjet printing head, - wherein in a second step, the newly printed front side is irradiated and thus dried by means of at least one first heat source, causing a first plastic torsional deformation of the sheet, - wherein the second step occurs after the first step, characterized - in that in a third step, the sheet is conditioned in that a back side of the sheet is contacted or irradiated by means of a second heat source, causing a second plastic torsional deformation of the sheet, the second torsional deformation directed against the first torsional deformation, - in that the third step occurs before the second step, and - in that a power of the second heat source is set in such a way that the second torsional deformation is dimensioned such that the first torsional deformation and the second torsional deformation neutralize one another. - wherein in a second step, the newly printed front side is irradiated and thus dried by means of at least one first heat source, causing a first plastic torsional deformation of the sheet, - wherein the second step occurs after the first step, - in that in a third step, the sheet is conditioned in that a back side of the sheet is contacted or irradiated by means of a second heat source, causing a second plastic torsional deformation of the sheet, the second torsional deformation directed against the first torsional deformation, - in that the third step occurs before the second step, and - in that a power of the second heat source is set in such a way that the second torsional deformation is dimensioned such that the first torsional deformation and the second torsional deformation neutralize one another.
An ultrasound imaging apparatus comprising: image-sample-acquisition circuitry operable to, for generating an imaging sample, apply delays transducer-element-wise and, in said generating, sum coherently in time, according to said delays, time samples acquired, the delays utilized in the summing being collectively non-focused; characterized in that the ultrasound imaging apparatus further comprises: a compressive sensing processor operable to sparsify an image, the sparsifying being performed based on imaging samples generated in said generating and, otherwise than merely via said imaging samples, on angles upon which respectively the delays for the generating of said imaging samples are functionally dependent.
An active phased array antenna (1, 1M) comprising: a substrate having a plurality of antenna elements (9-1, 9-2); a pseudo wafer (3, 3M) containing a group of semiconductor chips including a plurality of semiconductor chips (4-1, 4-2, 4-1M, 4-2M) made of compound semiconductors; and a silicon wafer (2, 2-11, 2-12) made of silicon, wherein the silicon wafer includes phase shifters, variable gain amplifiers, and a digital control circuit that control signals of the active phased array antenna; the substrate, the pseudo wafer, and the silicon wafer being stacked on top of each other in this order, wherein the pseudo wafer includes: first feeders (10-1, 10-3, 10-1M, 10-3M) to supply power to the group of semiconductor chips from the substrate, wherein each first feeder is a power wiring line; and a second feeder (5-1 to 5-3, 5-1M to 5-3M) to supply power to the silicon wafer from the substrate, the second feeder passing through the pseudo wafer in a thickness direction of the pseudo wafer, wherein the second feeder is a power wiring line. a substrate having a plurality of antenna elements (9-1, 9-2); a pseudo wafer (3, 3M) containing a group of semiconductor chips including a plurality of semiconductor chips (4-1, 4-2, 4-1M, 4-2M) made of compound semiconductors; and a silicon wafer (2, 2-11, 2-12) made of silicon, wherein the silicon wafer includes phase shifters, variable gain amplifiers, and a digital control circuit that control signals of the active phased array antenna; the substrate, the pseudo wafer, and the silicon wafer being stacked on top of each other in this order, wherein the pseudo wafer includes: first feeders (10-1, 10-3, 10-1M, 10-3M) to supply power to the group of semiconductor chips from the substrate, wherein each first feeder is a power wiring line; and a second feeder (5-1 to 5-3, 5-1M to 5-3M) to supply power to the silicon wafer from the substrate, the second feeder passing through the pseudo wafer in a thickness direction of the pseudo wafer, wherein the second feeder is a power wiring line. first feeders (10-1, 10-3, 10-1M, 10-3M) to supply power to the group of semiconductor chips from the substrate, wherein each first feeder is a power wiring line; and a second feeder (5-1 to 5-3, 5-1M to 5-3M) to supply power to the silicon wafer from the substrate, the second feeder passing through the pseudo wafer in a thickness direction of the pseudo wafer, wherein the second feeder is a power wiring line.
A sea water desalinating method for desalinating sea water by way of filtration using a reverse osmosis membrane device, the method comprising: carrying out a wastewater treatment step of subjecting inorganic wastewater to precipitation and separation to produce sedimentation treated water that is supernatant water, filtering the sedimentation treated water by using a clarifier that has at least one of a sand filtration means, a microfiltration membrane and a ultrafiltration membrane to produce permeate, and filtering the permeate using a second reverse osmosis membrane device to produce permeate that is purified water and concentrated water, the method being characterized by a mixing step of mixing the concentrated water, as diluent water, into sea water to produce mixed water, and a mixed water treatment step of feeding the mixed water produced by the mixing step to a first reverse osmosis membrane device at which the mixed water is filtered, thereby desalinating sea water. carrying out a wastewater treatment step of subjecting inorganic wastewater to precipitation and separation to produce sedimentation treated water that is supernatant water, filtering the sedimentation treated water by using a clarifier that has at least one of a sand filtration means, a microfiltration membrane and a ultrafiltration membrane to produce permeate, and filtering the permeate using a second reverse osmosis membrane device to produce permeate that is purified water and concentrated water, the method being characterized by a mixing step of mixing the concentrated water, as diluent water, into sea water to produce mixed water, and a mixed water treatment step of feeding the mixed water produced by the mixing step to a first reverse osmosis membrane device at which the mixed water is filtered, thereby desalinating sea water.
An aerosol-generating device comprising: a housing; and a power supply configured to supply electrical power to a heating element by way of a transformer assembly within the housing, wherein the transformer assembly comprises: a magnetic flux guide; a primary circuit comprising a primary winding extending around a first portion of the magnetic flux guide and electrically connected to the power supply; and a secondary circuit comprising a secondary winding inductively coupled to the primary winding and extending around a second portion of the magnetic flux guide; wherein the number of turns in the primary winding is greater than the number of turns in the secondary winding; and wherein the secondary circuit comprises at least two electrical contacts configured to form an electrical connection with the heating element. a housing; and a power supply configured to supply electrical power to a heating element by way of a transformer assembly within the housing, wherein the transformer assembly comprises: a magnetic flux guide; a primary circuit comprising a primary winding extending around a first portion of the magnetic flux guide and electrically connected to the power supply; and a secondary circuit comprising a secondary winding inductively coupled to the primary winding and extending around a second portion of the magnetic flux guide; wherein the number of turns in the primary winding is greater than the number of turns in the secondary winding; and wherein the secondary circuit comprises at least two electrical contacts configured to form an electrical connection with the heating element. a magnetic flux guide; a primary circuit comprising a primary winding extending around a first portion of the magnetic flux guide and electrically connected to the power supply; and a secondary circuit comprising a secondary winding inductively coupled to the primary winding and extending around a second portion of the magnetic flux guide; wherein the number of turns in the primary winding is greater than the number of turns in the secondary winding; and wherein the secondary circuit comprises at least two electrical contacts configured to form an electrical connection with the heating element.
Valve for gas under pressure, in particular at temperatures below -100°C, comprising: - a body with a gas inlet, a gas outlet and a passage connecting said inlet with said outlet; - a shut-off device for closing the gas passage; - a spindle designed for operating the shut-off device; - a first gasket and a second gasket,between the spindle and the body; and - a first cavity between the first and second gaskets (22, 24); characterized in that: the first cavity is shaped as a groove on the external surface of the spindle for accumulating particles separated from the second gasket while operating the spindle and the shut-off device, in particular at temperatures below -100°C. - a body with a gas inlet, a gas outlet and a passage connecting said inlet with said outlet; - a shut-off device for closing the gas passage; - a spindle designed for operating the shut-off device; - a first gasket and a second gasket,between the spindle and the body; and - a first cavity between the first and second gaskets (22, 24);
Optical enclosure comprising: • a base that can be fixed substantially parallel with a planar surface; • a spool arranged to rotate about a shaft which is substantially perpendicular to the base; • an optical cable wound in the spool; • a connecting piece, an inner side of which is connected inside the enclosure to a first end of the cable, called the internal end of the cable, an outer side of the connecting piece being intended to be connected to an external optical connection plug; • a removable lid that can cover the base and the spool; the cable being intended to be unwound out of the enclosure by pulling a second end of the cable, called the external end of the cable, the pulling causing the spool to rotate on the shaft, characterized in that the connecting piece is rigidly connected to the spool, and is arranged to assume at least a position outside the radial continuation of the spool and a so-called storage position in the radial continuation of the spool allowing the lid to cover the base and the spool. • a base that can be fixed substantially parallel with a planar surface; • a spool arranged to rotate about a shaft which is substantially perpendicular to the base; • an optical cable wound in the spool; • a connecting piece, an inner side of which is connected inside the enclosure to a first end of the cable, called the internal end of the cable, an outer side of the connecting piece being intended to be connected to an external optical connection plug; • a removable lid that can cover the base and the spool;
Shuttering device for shuttering a floor joint to be filled by means of joint filling material between a prefabricated wall part and an adjoining floor plate, the shuttering device comprising at least two shuttering rails which are arranged on the floor joint in a shuttering position and are fastened by means of a fastening device, wherein the fastening device comprises a retaining device at at least one of the two rail ends (17, 18) of each shuttering rail and the retaining device is an active retaining device or a passive retaining device, wherein two shuttering rails arranged adjacent to one another in their shuttering positions are respectively coupled to one another at their two rail ends (17, 18), characterized in that in that one shuttering rail with its active retaining device holds the other shuttering rail in engagement with its passive retaining device positioned at the floor joint, and in that the active retaining device at the rail end of one shuttering rail has an engagement part with a chamfer or with a wedge and that the engagement part interacts with an assigned contact part of the passive retaining device having a chamfer or a wedge at the rail end of the other shuttering rail. the fastening device comprises a retaining device at at least one of the two rail ends (17, 18) of each shuttering rail and the retaining device is an active retaining device or a passive retaining device, wherein two shuttering rails arranged adjacent to one another in their shuttering positions are respectively coupled to one another at their two rail ends (17, 18), characterized in that in that one shuttering rail with its active retaining device holds the other shuttering rail in engagement with its passive retaining device positioned at the floor joint, and in that the active retaining device at the rail end of one shuttering rail has an engagement part with a chamfer or with a wedge and that the engagement part interacts with an assigned contact part of the passive retaining device having a chamfer or a wedge at the rail end of the other shuttering rail.
Installation switching device, having a connecting terminal which is fitted to a narrow face of the installation device housing, having a switching apparatus which has a quenching chamber and in which switching gases are created during a switching operation, having a vent channel through which the switching gases can escape from the housing interior and whose outlet opening is located close to the connecting terminal on the housing narrow face, characterized by an attachment element for attachment of the installation switching device to a busbar, which is fitted to the narrow face of the installation device housing and has an exhaust-gas channel whose inlet opening corresponds with the outlet opening of the vent channel, such that the switching gases which emerge from the outlet opening are passed on through the exhaust-gas channel of the attachment element, with the attachment element being fitted with an entry channel for a connecting conductor to pass through, which entry channel corresponds with the outgoer terminal opening of the installation switching device and is open on a mounting face and the upper face.
An electronic device comprising a semiconducting layer, wherein the semiconducting layer comprises a semiconducting polymer of Formula: wherein X is independently selected from S, Se, O, and NR, wherein R is independently selected from hydrogen, alkyl, substituted alkyl, aryl, substituted aryl, heteroaryl, and -CN; Ar is independently a conjugated divalent moiety; wherein each Ar is a conjugated divalent moiety selected from: and combinations thereof, wherein R' is independently selected from hydrogen, alkyl, substituted alkyl, aryl, substituted aryl, heteroaryl, or -CN; and the divalent moiety may be substituted peripherally with alkyl, substituted alkyl, aryl, substituted aryl, heteroaryl, halogen, -CN, or -NO 2; a is an integer from 1 to about 10; and n is an integer from 2 to about 5,000. wherein X is independently selected from S, Se, O, and NR, wherein R is independently selected from hydrogen, alkyl, substituted alkyl, aryl, substituted aryl, heteroaryl, and -CN; Ar is independently a conjugated divalent moiety; wherein each Ar is a conjugated divalent moiety selected from: and combinations thereof, wherein R' is independently selected from hydrogen, alkyl, substituted alkyl, aryl, substituted aryl, heteroaryl, or -CN; and the divalent moiety may be substituted peripherally with alkyl, substituted alkyl, aryl, substituted aryl, heteroaryl, halogen, -CN, or -NO 2; a is an integer from 1 to about 10; and n is an integer from 2 to about 5,000.
A pharmaceutical preparation for use in therapy of ErbB2-positive cancer, the preparation comprising an isolated or recombinantly produced peptidase D (PEPD) and at least one pharmaceutically acceptable carrier.
A method for providing a position determination, comprising the steps of: obtaining data representing signal properties of a cellular communication network associated with a user equipment; and determining a position for said user equipment based on said signal properties; and obtaining data representing a precoder selection for spatial multiplexing for said user equipment; said step of determining being based also on said data representing said precoder selection, wherein the signal properties of the cellular communication network, associated with the user equipment, comprise fingerprinting parameters or signal propagation times within the cellular communication network, and wherein said step of determining in turn comprises the steps of: a basic position determining based on said signal properties, wherein said basic positioning determining is based on adaptive enhanced cell identity positioning; and enhancement of said basic position determination by use of said precoder selection data. obtaining data representing signal properties of a cellular communication network associated with a user equipment; and determining a position for said user equipment based on said signal properties; and obtaining data representing a precoder selection for spatial multiplexing for said user equipment; said step of determining being based also on said data representing said precoder selection, wherein the signal properties of the cellular communication network, associated with the user equipment, comprise fingerprinting parameters or signal propagation times within the cellular communication network, and wherein said step of determining in turn comprises the steps of: a basic position determining based on said signal properties, wherein said basic positioning determining is based on adaptive enhanced cell identity positioning; and enhancement of said basic position determination by use of said precoder selection data. a basic position determining based on said signal properties, wherein said basic positioning determining is based on adaptive enhanced cell identity positioning; and enhancement of said basic position determination by use of said precoder selection data.
A method of detecting one or more circulating tumor cells in a sample of an individual, comprising: introducing the sample into at least one inlet of a microfluidic device comprising one or more spiral channels, wherein each channel has a length and a cross-section of a height and a width defining an aspect ratio in a range of between 1 and 5, the aspect ratio adapted to isolate circulating tumor cells along portions of the cross-section of the channel based on cell size, wherein the aspect ratio is defined as the ratio of the height divided by the width, and wherein the height of the channel is 10-200 μm and the width of the channel is 100-500 μm, the sample flowing along the one or more spiral channels in a direction of a Dean vortex; introducing a sheath fluid into the microfluidic device; and isolating one or more circulating tumor cells from the sample along portions of the cross-section of the channel based on cell size due to completion of a Dean cycle; wherein the introducing comprises introducing the sample into the microfluidic device via a radially innermost inlet and introducing the sheath fluid into the microfluidic device via a radially outermost inlet to confine the sample to a radially innermost portion of the channel at the inlet; wherein the isolating comprises circulating tumor cells flowing along the radially innermost portion of the channel to a first outlet and the other cells in the sample flowing along a radially outermost portion of the channel to a second outlet; and wherein the sample is a blood sample or plasma. introducing the sample into at least one inlet of a microfluidic device comprising one or more spiral channels, wherein each channel has a length and a cross-section of a height and a width defining an aspect ratio in a range of between 1 and 5, the aspect ratio adapted to isolate circulating tumor cells along portions of the cross-section of the channel based on cell size, wherein the aspect ratio is defined as the ratio of the height divided by the width, and wherein the height of the channel is 10-200 μm and the width of the channel is 100-500 μm, the sample flowing along the one or more spiral channels in a direction of a Dean vortex; introducing a sheath fluid into the microfluidic device; and isolating one or more circulating tumor cells from the sample along portions of the cross-section of the channel based on cell size due to completion of a Dean cycle;
A process of forming a composite thermoforming mould, the process involving manufacturing first and second mould portions (12, 14) from respective first and second mould blanks having a planar upper face (16, 22) and a planar side face (18, 24), the two faces forming an edge (20, 26) at their point of intersection; the process involving forming a first cavity in the first mould blank, the perimeter of which is present on both the upper face and side face of the first mould blank, thereby forming a first mould portion, forming a second cavity in the second mould blank, the perimeter of which is present on both the upper face and side face of the second mould blank, thereby forming a second mould portion, and wherein the portion of the perimeter of the second cavity on the side face of the second mould portion has a mirror image profile of the portion of the perimeter of the first cavity on the side face of the first mould portion, and wherein the first mould portion and the second mould portion are brought into contact so that the respective side faces (18, 24) are in contact and so that the two upper faces (16, 22) form a combined planar upper face and so that the portions of the perimeter on the side faces (18, 24) of both the first and second mould portions (12, 14) are aligned, thereby forming a combined cavity having a portion of its perimeter present on the upper face of the first mould portion and a portion of its perimeter present on the upper face of the second mould portion, thereby forming the composite thermoforming mould, characterized in that portions of the combined cavity do not have line-of-sight to an open area above the cavity perimeter. forming a first cavity in the first mould blank, the perimeter of which is present on both the upper face and side face of the first mould blank, thereby forming a first mould portion, forming a second cavity in the second mould blank, the perimeter of which is present on both the upper face and side face of the second mould blank, thereby forming a second mould portion, and wherein the portion of the perimeter of the second cavity on the side face of the second mould portion has a mirror image profile of the portion of the perimeter of the first cavity on the side face of the first mould portion, and wherein the first mould portion and the second mould portion are brought into contact so that the respective side faces (18, 24) are in contact and so that the two upper faces (16, 22) form a combined planar upper face and so that the portions of the perimeter on the side faces (18, 24) of both the first and second mould portions (12, 14) are aligned, thereby forming a combined cavity having a portion of its perimeter present on the upper face of the first mould portion and a portion of its perimeter present on the upper face of the second mould portion, thereby forming the composite thermoforming mould, characterized in that portions of the combined cavity do not have line-of-sight to an open area above the cavity perimeter.