mhurhangee/ep-ind-claims huggingface dataset:
An insulin analogue or its pharmaceutically acceptable salt, comprising two polypeptides forming chain A and chain B, characterised in that it is defined by general formula 1 where X is a basic amino acid and is lysine or arginine, and R is a neutral amino acid selected from among glycine, alanine, serine or threonine, wherein amino acid sequence of chain A being selected from among SEQ ID No. 1 to 4, and amino acid sequence of chain B being selected from among SEQ ID No. 5 or SEQ ID No. 6, and that the insulin analogue has an isoelectric point with values of from 6 to 8.
Device for supplying containers to a container treatment device, preferably to a container filling device for filling containers with a liquid filling product, comprising a guide arranged on a predetermined guiding height level for guiding a container at its container base, wherein the guide has a transfer portion for transferring the container to an acquisition device of the container treatment device, wherein the transfer portion is height adjustable, characterised in that a sensor is provided for detecting an acquisition height level of a container guide of the container treatment machine which is acquiring the containers.
A semiconductor package (100; 200; 300; 400) comprising: an integrated circuit die; a package substrate physically and communicatively coupled with the IC die, wherein the package substrate includes a plurality of layers; an antenna located in an inner layer of the plurality of layers; characterised by a dummification element adjacent to the antenna in the layer of the plurality of layers. an integrated circuit die; a package substrate physically and communicatively coupled with the IC die, wherein the package substrate includes a plurality of layers; an antenna located in an inner layer of the plurality of layers; characterised by a dummification element adjacent to the antenna in the layer of the plurality of layers.
A support device for supporting a safety cable, the support device comprising: a metal sheet having an upper end and an opposed lower end, characterised in that the metal sheet comprises: - at its lower end, an attachment portion arranged to be attached to a structure, - at its upper end, a cut out between a first upper end section and an opposed, second upper end section, the cut out defining an opening facing upwards with respect to the metal sheet, the opening being arranged to receive a tense cable, and - at its upper end, a wheel comprising a plurality of spokes, the wheel being rotatably attached to the first upper end section, wherein the wheel is arranged to extend towards the second upper end section, thereby covering the opening of the metal sheet and in operation enclosing the tense cable, wherein the spokes of the wheel are arranged with spaces between them, which spaces are dimensioned such that a snap hook or the like arranged around the cable can be placed in one of said spaces in operation and moved along the cable from one end of the metal sheet to the other end of the metal sheet by rotating the wheel, and wherein the second upper end section extends upwards towards the periphery of the wheel, thereby forming an outer border of the opening preventing the tense cable to exit from the opening. a metal sheet having an upper end and an opposed lower end, characterised in that the metal sheet comprises: - at its lower end, an attachment portion arranged to be attached to a structure, - at its upper end, a cut out between a first upper end section and an opposed, second upper end section, the cut out defining an opening facing upwards with respect to the metal sheet, the opening being arranged to receive a tense cable, and - at its upper end, a wheel comprising a plurality of spokes, the wheel being rotatably attached to the first upper end section, - at its lower end, an attachment portion arranged to be attached to a structure, - at its upper end, a cut out between a first upper end section and an opposed, second upper end section, the cut out defining an opening facing upwards with respect to the metal sheet, the opening being arranged to receive a tense cable, and - at its upper end, a wheel comprising a plurality of spokes, the wheel being rotatably attached to the first upper end section, wherein the wheel is arranged to extend towards the second upper end section, thereby covering the opening of the metal sheet and in operation enclosing the tense cable, wherein the spokes of the wheel are arranged with spaces between them, which spaces are dimensioned such that a snap hook or the like arranged around the cable can be placed in one of said spaces in operation and moved along the cable from one end of the metal sheet to the other end of the metal sheet by rotating the wheel, and wherein the second upper end section extends upwards towards the periphery of the wheel, thereby forming an outer border of the opening preventing the tense cable to exit from the opening.
Control interface with haptic feedback for a motor vehicle comprising a control device provided with a cursor (4; 27) that can be displaced by a user in a guiding groove (5; 23), characterized in that said control interface comprises a magnetorheological fluid module comprising a rotary element, a magnetorheological fluid in contact with the rotary element and a unit for applying a magnetic field configured to apply a magnetic field to the magnetorheological fluid and to modify the intensity of the magnetic field applied, the rotary element of the magnetorheological fluid module being coupled to the cursor (4; 27) of the control device to generate haptic feedback to the user who displaces the cursor (4; 27) by modification of the magnetic field applied to the magnetorheological fluid.
A computed tomography system, comprising: at least two x-ray sources aligned at different z-axis locations at about a same angular position, wherein the at least two x-ray sources are adapted to concurrently emit radiation that traverses an imaging region; and at least one detector that is adapted to detect radiation concurrently emitted by the at least two x-ray sources and to generate composite data indicative of the detected radiation; characterized in that the at least two x-ray sources are adapted to concurrently emit the radiation such that the concurrently emitted radiation overlaps on the at least one detector and that the composite data is indicative of the detected overlapping radiation, wherein the computed tomography system further comprises a reconstruction system that is adapted to reconstruct the composite data to generate an image, wherein the reconstruction system employs a reconstructor that is adapted to account for contributions from each of the at least two x-ray sources in the composite data, wherein the reconstructor is adapted to employ an iterative reconstruction approach and to update a fractional contribution from each of the at least two sources for each voxel in the reconstructed data during each iteration. at least two x-ray sources aligned at different z-axis locations at about a same angular position, wherein the at least two x-ray sources are adapted to concurrently emit radiation that traverses an imaging region; and at least one detector that is adapted to detect radiation concurrently emitted by the at least two x-ray sources and to generate composite data indicative of the detected radiation; characterized in that the at least two x-ray sources are adapted to concurrently emit the radiation such that the concurrently emitted radiation overlaps on the at least one detector and that the composite data is indicative of the detected overlapping radiation, wherein the computed tomography system further comprises a reconstruction system that is adapted to reconstruct the composite data to generate an image, wherein the reconstruction system employs a reconstructor that is adapted to account for contributions from each of the at least two x-ray sources in the composite data, wherein the reconstructor is adapted to employ an iterative reconstruction approach and to update a fractional contribution from each of the at least two sources for each voxel in the reconstructed data during each iteration.
Cooking appliance apparatus with at least one induction heating line (20a-b), which is wound to form a coil (14a-b), which is provided to generate a magnetic field, with at least one shielding unit (12a-b), which is provided to at least partially shield at least one location from a magnetic field generated by the coil (14a-b), and which is at least for the most part embodied in at least a granulate form and comprises a large number of grains, wherein individual grains can be at least largely moved independently from one another in an operational state and when arranged in an open area, with at least one container (16a-b), which in an installed position is provided for storing the at least one shielding unit (12a-b), characterised by at least one blocking element (24a-b), which is at least partially arranged in an inner space defined by the container (16a-b) and which is provided to block an arrangement of the at least one shielding unit (12a-b) in a subregion of the inner space (26a-b).
A tool head having provisions for performing a crimping or pressing operation upon a workpiece, the tool head comprising: a frame assembly defining an interior region for performing a crimping or pressing operation, the frame assembly also defining an access channel extending between the interior region and a nose region of the frame assembly; at least one latch pin secured to the frame assembly and positioned proximate to the access channel defined by the frame assembly; a selectively positionable latch defining at least one elongate aperture having two opposite endwalls and sized to receive at least one latch pin, the latch positioned such that the latch pin is received within the aperture defined in the latch and the latch being positionable between (i) a closed position in which the latch extends across the access channel thereby blocking the access channel and the latch pin contacts one of the endwalls of the aperture defined in the latch, (ii) an unsecured position in which the latch pin contacts another one of the endwalls of the aperture defined in the latch, and (iii) an open position in which the access channel defined by the frame assembly is not blocked by the latch. a frame assembly defining an interior region for performing a crimping or pressing operation, the frame assembly also defining an access channel extending between the interior region and a nose region of the frame assembly; at least one latch pin secured to the frame assembly and positioned proximate to the access channel defined by the frame assembly; a selectively positionable latch defining at least one elongate aperture having two opposite endwalls and sized to receive at least one latch pin, the latch positioned such that the latch pin is received within the aperture defined in the latch and the latch being positionable between (i) a closed position in which the latch extends across the access channel thereby blocking the access channel and the latch pin contacts one of the endwalls of the aperture defined in the latch, (ii) an unsecured position in which the latch pin contacts another one of the endwalls of the aperture defined in the latch, and (iii) an open position in which the access channel defined by the frame assembly is not blocked by the latch.
An apparatus for detecting swelling of a battery module, comprising: a battery module housing configured to define a space in which the battery module is placed; a swelling detection panel adapted to be attached to one side surface of the battery module and having an edge in contact with an inner surface of the battery module housing; a slant portion configured to protrude from the inner surface of the battery module housing and having a slant surface extending from a first location adjacent to the edge of the swelling detection panel to a second location while forming a predetermined angle with the inner surface of the battery module housing; a contact sensor unit installed to the inner surface of the battery module housing immediately adjacent to an end of the slant surface corresponding to the second location; an alarm unit configured to output an alarm message visually or audibly; and a control unit operably coupled to the contact sensor unit and the alarm unit, wherein the contact sensor unit is configured to output a swelling detection signal when the swelling detection panel moves along the slant surface to deviate from the second location so that the edge of the swelling detection panel contacts the contact sensor unit, and the control unit is configured to control the alarm unit to output the alarm message when receiving the swelling detection signal. a battery module housing configured to define a space in which the battery module is placed; a swelling detection panel adapted to be attached to one side surface of the battery module and having an edge in contact with an inner surface of the battery module housing; a slant portion configured to protrude from the inner surface of the battery module housing and having a slant surface extending from a first location adjacent to the edge of the swelling detection panel to a second location while forming a predetermined angle with the inner surface of the battery module housing; a contact sensor unit installed to the inner surface of the battery module housing immediately adjacent to an end of the slant surface corresponding to the second location; an alarm unit configured to output an alarm message visually or audibly; and a control unit operably coupled to the contact sensor unit and the alarm unit, wherein the contact sensor unit is configured to output a swelling detection signal when the swelling detection panel moves along the slant surface to deviate from the second location so that the edge of the swelling detection panel contacts the contact sensor unit, and the control unit is configured to control the alarm unit to output the alarm message when receiving the swelling detection signal.
A method for performing, by a first device, wireless communication, the method comprising: receiving, from a second device, a physical sidelink shared channel, PSSCH; determining a physical sidelink feedback channel, PSFCH, resource related to the PSSCH, based on a sub-channel related to the PSSCH, a slot related to the PSSCH, an ID of the first device and a source ID of the second device; and transmitting, to the second device, a hybrid automatic repeat request, HARQ, feedback based on the PSFCH resource, wherein the ID of the first device is determined based on a cast type of communication between the first device and the second device, and wherein the ID of the first device is determined to be zero, based on the cast type being unicast. receiving, from a second device, a physical sidelink shared channel, PSSCH; determining a physical sidelink feedback channel, PSFCH, resource related to the PSSCH, based on a sub-channel related to the PSSCH, a slot related to the PSSCH, an ID of the first device and a source ID of the second device; and transmitting, to the second device, a hybrid automatic repeat request, HARQ, feedback based on the PSFCH resource, wherein the ID of the first device is determined based on a cast type of communication between the first device and the second device, and wherein the ID of the first device is determined to be zero, based on the cast type being unicast.
Ex vivo method for the prognosis of metastasis in prostate cancer, CHARACTERIZED in that it comprises the following steps: a) determining the level of expression of the following genes: NRP-1, MFAP4, NRIP3, THBS2, TNF, EDN1, EBF1 and GALNT16, in a biological sample containing stromal cells of a prostate cancer primary tumor; b) establishing whether the expression of the genes NRP-1, MFAP4, NRIP3, THBS2, TNF, EDN1, EBF1 is increased or if the expression of the GALNT16 gene is diminished, which correlates with the prognosis of metastasis in prostate cancer. a) determining the level of expression of the following genes: NRP-1, MFAP4, NRIP3, THBS2, TNF, EDN1, EBF1 and GALNT16, in a biological sample containing stromal cells of a prostate cancer primary tumor; b) establishing whether the expression of the genes NRP-1, MFAP4, NRIP3, THBS2, TNF, EDN1, EBF1 is increased or if the expression of the GALNT16 gene is diminished, which correlates with the prognosis of metastasis in prostate cancer.
A method for portioning sliced products, in particular sliced food products, in which product slices which are cut by means of a cutting apparatus for the formation of stacks comprising a respective plurality of product slices are placed onto a portioning belt which can generally be traveled vertically and the formed stacks are transferred from the portioning belt onto a control belt which is pivotably supported in the region of its end remote from the portioning belt, wherein, during a normal mode of operation, in the course of which respective complete stacks are formed after the product cut has taken place, the free end of the control belt and the portioning belt are at least synchronized with respect to their vertical movements for the transfer of the formed stacks and are separated in the vertical direction for the removal of a respective product cut from the portioning belt in order to remove the product cut by means of the portioning belt via the gap which is thereby formed between the control belt and the portioning belt.
An electric reaction control system, comprising: an aircraft having air ducting, disposed within the aircraft; an air compressor operably coupled to the ducting and configured to pressurize air in the ducting; a high-speed electric motor configured to drive the air compressor; a pressure control valve configured to control the air pressure in the ducting; a plurality of nozzles (18, 22, 24) disposed along pitch, roll, and yaw axes at extremities of the aircraft operably coupled to the ducting, and configured to selectively expel a burst of air to alter the pitch, roll, and yaw orientation of the aircraft during flight; and a flight control computer configured to generate pulse-width modulated signals to vary a timing, duration, mass flow, and sequence of the burst of air from each of the plurality of nozzles (18, 22, 24), wherein each nozzle (18,22,24) includes an aperture that controllably varies in size; wherein the air compressor is configured to operate at a constant speed; and wherein the flight control computer selectively controls the size of the aperture and the amount of time that the aperture is opened. an aircraft having air ducting, disposed within the aircraft; an air compressor operably coupled to the ducting and configured to pressurize air in the ducting; a high-speed electric motor configured to drive the air compressor; a pressure control valve configured to control the air pressure in the ducting; a plurality of nozzles (18, 22, 24) disposed along pitch, roll, and yaw axes at extremities of the aircraft operably coupled to the ducting, and configured to selectively expel a burst of air to alter the pitch, roll, and yaw orientation of the aircraft during flight; and a flight control computer configured to generate pulse-width modulated signals to vary a timing, duration, mass flow, and sequence of the burst of air from each of the plurality of nozzles (18, 22, 24), wherein each nozzle (18,22,24) includes an aperture that controllably varies in size; wherein the air compressor is configured to operate at a constant speed; and wherein the flight control computer selectively controls the size of the aperture and the amount of time that the aperture is opened.
A rubber composition, comprising: a random copolymer comprising a monomer unit (a) derived from an aromatic vinyl compound and a monomer unit (b) derived from farnesene; a rubber component; and at least one selected from the group consisting of carbon black and silica. a random copolymer comprising a monomer unit (a) derived from an aromatic vinyl compound and a monomer unit (b) derived from farnesene; a rubber component; and
An arc welding control method for alternately repeating a short-circuit period and an arc period as a main component while feeding a welding wire to a base material at a constant wire feeding speed using a shield gas containing carbon dioxide, the arc welding control method comprising: starting the arc period by increasing a welding current (Ia) in the short-circuit period; and performing control in the arc period, the control including: first control of increasing the welding current (Ia) to a first current value in a range from 200 A to 300 A inclusive at a first gradient and maintaining the welding current (Ia) at the first current value for a first period; second control of reducing the welding current (Ia) from the first current value to a second current value at a second gradient and maintaining the welding current (Ia) at the second current value for a second period; third control of increasing the welding current (Ia) from the second current value to a third current value higher than the first current value at a third gradient; and fourth control that is started to reduce the welding current (Ia) from the third current value within 0.5 ms after the welding current (la) reaches the third current value under the third control. starting the arc period by increasing a welding current (Ia) in the short-circuit period; and performing control in the arc period, the control including: first control of increasing the welding current (Ia) to a first current value in a range from 200 A to 300 A inclusive at a first gradient and maintaining the welding current (Ia) at the first current value for a first period; second control of reducing the welding current (Ia) from the first current value to a second current value at a second gradient and maintaining the welding current (Ia) at the second current value for a second period; third control of increasing the welding current (Ia) from the second current value to a third current value higher than the first current value at a third gradient; and fourth control that is started to reduce the welding current (Ia) from the third current value within 0.5 ms after the welding current (la) reaches the third current value under the third control. first control of increasing the welding current (Ia) to a first current value in a range from 200 A to 300 A inclusive at a first gradient and maintaining the welding current (Ia) at the first current value for a first period; second control of reducing the welding current (Ia) from the first current value to a second current value at a second gradient and maintaining the welding current (Ia) at the second current value for a second period; third control of increasing the welding current (Ia) from the second current value to a third current value higher than the first current value at a third gradient; and fourth control that is started to reduce the welding current (Ia) from the third current value within 0.5 ms after the welding current (la) reaches the third current value under the third control.