mhurhangee/ep-ind-claims huggingface dataset:
A Printed circuit board (100, 200), comprising: an insulating layer; at least one circuit pattern or pad (125, 225, 325) formed on the insulating layer; a solder resist (130, 230, 330) having an opening section (135, 235, 350) exposing an upper surface of a pad (125, 225, 325) and formed on the insulating layer; a bump (160, 260, 270, 370) formed on the pad (125, 225, 325) exposed through the opening section (135, 235, 350) of the solder resist (130, 230, 330) and protruding over an upper surface of the solder resist (130, 230, 330); and a plating seed layer (150, 250) formed between a side surface of the solder resist (130, 230, 330) and a side surface of the bump (160, 260, 270, 370) and exposing the upper surface of the pad (125, 225, 325), wherein the bump (160, 260, 270, 370) has an upper surface and a lower surface facing the upper surface, wherein an area of the upper surface of the bump (160, 260, 270, 370) is same as an area of the lower surface of the bump (160, 260, 270, 370), wherein the plating seed layer (150, 250) has an upper surface and a lower surface facing the upper surface, wherein the upper surface of the plating seed layer (150, 250) lies in a same plane as the upper surface of the bump (160, 260, 270, 370). an insulating layer; at least one circuit pattern or pad (125, 225, 325) formed on the insulating layer; a solder resist (130, 230, 330) having an opening section (135, 235, 350) exposing an upper surface of a pad (125, 225, 325) and formed on the insulating layer; a bump (160, 260, 270, 370) formed on the pad (125, 225, 325) exposed through the opening section (135, 235, 350) of the solder resist (130, 230, 330) and protruding over an upper surface of the solder resist (130, 230, 330); and a plating seed layer (150, 250) formed between a side surface of the solder resist (130, 230, 330) and a side surface of the bump (160, 260, 270, 370) and exposing the upper surface of the pad (125, 225, 325), wherein the bump (160, 260, 270, 370) has an upper surface and a lower surface facing the upper surface, wherein an area of the upper surface of the bump (160, 260, 270, 370) is same as an area of the lower surface of the bump (160, 260, 270, 370), wherein the plating seed layer (150, 250) has an upper surface and a lower surface facing the upper surface, wherein the upper surface of the plating seed layer (150, 250) lies in a same plane as the upper surface of the bump (160, 260, 270, 370).
Container for the plates of an electric battery, said container being provided with a plurality of walls (6a, 6b, 6c, 6d, 6e, 6f, 6g) that intersect each other to define one or more cells (2a, 2b, 2c, 2d, 2e, 2f) adjacent to each other and suited to contain said plates, each one of said cells (2a, 2b, 2c, 2d, 2e, 2f) being internally provided with at least one laminar element made of an elastically deformable material, provided with a first surface resting on a wall of the cell and with a second surface opposite said first surface and placed in contact with the most external plate, said laminar element being shaped in such a way as to be provided with a plurality of convex portions (8a, 8b, 8c, 8d) on said second surface and being constrained to said wall (6a, 6b, 6c, 6d, 6e, 6f, 6g) of said cell (2a, 2b, 2c, 2d, 2e, 2f) through connection means, characterized in that said connection means are removable and are of the type coupled through a sliding movement.
An image forming unit detachably mountable to an image forming apparatus, said image forming unit comprises: a main assembly including an image bearing member and insertable into the image forming apparatus; a cover portion engaging with the main assembly of said unit to cover said image bearing member; an inserting portion provided on said cover portion for insertion into said image forming apparatus; a movable locking portion configured to lock said cover portion with the image forming apparatus; and characterized by a moving mechanism (104, 106, 210, 211, 212) configured to move said locking portion to a locking position after said cover portion is mounted to the image forming apparatus, and the main assembly of said image forming unit is inserted into the image forming apparatus by a predetermined amount from an insertion starting position, and configured to move said locking portion from the locking position to an unlocking position before completion of mounting of the main assembly of said image forming unit to the image forming apparatus. a main assembly including an image bearing member and insertable into the image forming apparatus; a cover portion engaging with the main assembly of said unit to cover said image bearing member; an inserting portion provided on said cover portion for insertion into said image forming apparatus; a movable locking portion configured to lock said cover portion with the image forming apparatus; and characterized by a moving mechanism (104, 106, 210, 211, 212) configured to move said locking portion to a locking position after said cover portion is mounted to the image forming apparatus, and the main assembly of said image forming unit is inserted into the image forming apparatus by a predetermined amount from an insertion starting position, and configured to move said locking portion from the locking position to an unlocking position before completion of mounting of the main assembly of said image forming unit to the image forming apparatus.
A method of producing a pulmonary surfactant protein-B (SP-B) mature peptide, in a plant cell, the method comprising the steps of: (i) providing a nucleic acid sequence consisting of a polynucleotide sequence encoding a SP-B mature peptide, or analog thereof; (ii) introducing the nucleic acid sequence into an expression vector adapted to express a polypeptide in a plant cell; (iii) introducing the expression vector of step (ii) into a plant cell; (iv) expressing the SP-B mature peptide, or analog thereof in the plant cell of step (iii); and (v) harvesting the SP-B mature peptide, or analog thereof from the plant cell, wherein the encoded SP-B mature peptide sequence is set forth in SEQ ID NO: 3, or is a variant sequence at least 90% identical to SEQ ID NO: 3 and wherein the variant sequence is capable of lowering surface tension of a lipid bilayer membrane on interaction with phospholipids. (i) providing a nucleic acid sequence consisting of a polynucleotide sequence encoding a SP-B mature peptide, or analog thereof; (ii) introducing the nucleic acid sequence into an expression vector adapted to express a polypeptide in a plant cell; (iii) introducing the expression vector of step (ii) into a plant cell; (iv) expressing the SP-B mature peptide, or analog thereof in the plant cell of step (iii); and (v) harvesting the SP-B mature peptide, or analog thereof from the plant cell, wherein the encoded SP-B mature peptide sequence is set forth in SEQ ID NO: 3, or is a variant sequence at least 90% identical to SEQ ID NO: 3 and wherein the variant sequence is capable of lowering surface tension of a lipid bilayer membrane on interaction with phospholipids.
An arrangement of segmented retractable rotor seal in a stator of a turbine, by which the rotor seal is arranged radially and axially movably in a circumferential groove formed in the stator of the turbine and is connected with a means which retracts it away from the rotor of the turbine in radial direction, characterized in that the circumferential groove formed in the stator of the turbine contains an outer partial circumferential groove formed on the radial inner axially extending surface of the stator and an inner partial circumferential groove connected with the outer partial circumferential groove and formed in the body of the stator, the axial width of the inner partial circumferential groove being smaller than or equal to that of the outer partial circumferential groove, whereby the rotor seal contains a head of the seal, which is arranged in the inner partial circumferential groove, and a comb of the seal, which is arranged in the outer partial circumferential groove, wherein the head of the rotor seal and the comb of the rotor seal are connected by a neck of the rotor seal, and the smallest axial clearance along the entire radial height of the arrangement of the rotor seal is formed in the axial direction of movement of sealed medium between the downstream radial face of the comb of the rotor seal and the radial wall of the outer partial circumferential groove facing the downstream face of the comb, whereby the space on the upstream side in the direction of the movement of sealed medium before the rotor seal and the space between the radial upper axially extending surface of the comb of the rotor seal and the stator of the turbine on the downstream side of the rotor seal are connected by at least one connecting hole created in the neck of the seal and/or by at least one hole/slit created in the stator of the turbine on each side of the rotor seal and connected with the inner partial circumferential groove, while during supply of the sealed medium, the rotor seal moves by action of this medium in an axial direction, whereby the downstream radial face of its comb is pressed towards the radial wall of the stator, by which the clearance between the comb and the stator of the turbine equals 0 and in the place of their contact a sealing point is created, while in the interconnected spaces the same pressure is achieved, and after reaching the operating pressure the pressure of the sealed medium moves the rotor seal radialy towards the rotor of the turbine.
A method performed by a wireless device for supporting distribution of paging messages within a Radio Access Network Area, RANA, of a wireless network, the method comprising: - collecting RANA related information from network nodes (202, 204, 206) visited by the wireless device, the RANA related information indicating which RANAs are supported by the respective network nodes, - extracting from the collected RANA related information, a list of network nodes that support a RANA, and - sending the extracted list of network nodes to a first network node to enable said distribution of paging messages by the first network node within the RANA. - collecting RANA related information from network nodes (202, 204, 206) visited by the wireless device, the RANA related information indicating which RANAs are supported by the respective network nodes, - extracting from the collected RANA related information, a list of network nodes that support a RANA, and - sending the extracted list of network nodes to a first network node to enable said distribution of paging messages by the first network node within the RANA.
An RFID reading tunnel comprising at least one RFID reading apparatus installed at a reading zone of a conveyor or of a passageway for reading RFID transponders in the reading zone, wherein the RFID reading apparatus has a reading reception antenna attached to the reading zone for receiving RFID signals from the reading zone and an evaluation unit for reading out RFID information from the RFID signals, characterized by an additional reception antenna for receiving RFDI signals which is attached so that RFID signals from the reading zone are as far as possible not received by the additional reception antenna by arranging and adjusting the additional reception antenna in a sufficiently large distance without direct line of sight to the reading zone and/or behind at least one barrier impenetrable for electromagnetic radiation, with the evaluation unit being designed for a false reading check in which RFID information is discarded when the evaluation unit detects by a comparison that the RFID signal belonging to the RFID information has been received both by the reading reception antenna and by the additional reception antenna.
A medical device, the medical device comprising a balloon catheter, a first stent, and a second stent; the balloon catheter having a shaft and an inflatable balloon mounted to the shaft at the distal end, the balloon having a distal portion having a first outer diameter and a proximal portion having a second outer diameter, wherein the first diameter is smaller than the second diameter and a transition region located between the distal portion and the proximal portion, a first stent having a first nominal diameter mounted on the distal portion of the balloon and a second stent having a second nominal diameter mounted on the proximal portion of the balloon, a distal portion of the second stent overlapping a proximal portion of the first stent, wherein the proximal end of the first stent is positioned proximal to the distal end of the second stent, the medical device further comprising a pre-cannulation means providing a passage from the interior of the second stent to the exterior of the first stent passing the stent overlapping portion between the inner surface of the second stent and the outer surface of the first stent. a balloon catheter, a first stent, and a second stent; the balloon catheter having a shaft and an inflatable balloon mounted to the shaft at the distal end, the balloon having a distal portion having a first outer diameter and a proximal portion having a second outer diameter, wherein the first diameter is smaller than the second diameter and a transition region located between the distal portion and the proximal portion, a first stent having a first nominal diameter mounted on the distal portion of the balloon and a second stent having a second nominal diameter mounted on the proximal portion of the balloon, a distal portion of the second stent overlapping a proximal portion of the first stent, wherein the proximal end of the first stent is positioned proximal to the distal end of the second stent, the medical device further comprising a pre-cannulation means providing a passage from the interior of the second stent to the exterior of the first stent passing the stent overlapping portion between the inner surface of the second stent and the outer surface of the first stent.
Method for estimating the tritium dose (expressed in Sieverts (Sv)) absorbed by a person after exposure of said person to a tritiated environment for a duration τ (expressed in hours (h)), said method comprising the following steps: a) a step to measure the activity per unit volume of tritium present in said environment (denoted C HTO and expressed in Becquerel per litre (Bq/L)); b) a step to estimate the dose absorbed by said person, using the following relation: Dose = C HTO × τ × DPUI HTO × 1800, in which: - C HTO is the activity per unit volume of tritium (expressed in Becquerel per litre (Bq/1)) measured in the previous step a); and - DPUI HTO is equal to 1.8 x · 10 -11 Sieverts per Becquerel (Sv/Bq). a) a step to measure the activity per unit volume of tritium present in said environment (denoted C HTO and expressed in Becquerel per litre (Bq/L)); b) a step to estimate the dose absorbed by said person, using the following relation: Dose = C HTO × τ × DPUI HTO × 1800, in which: - C HTO is the activity per unit volume of tritium (expressed in Becquerel per litre (Bq/1)) measured in the previous step a); and - DPUI HTO is equal to 1.8 x · 10 -11 Sieverts per Becquerel (Sv/Bq). - C HTO is the activity per unit volume of tritium (expressed in Becquerel per litre (Bq/1)) measured in the previous step a); and - DPUI HTO is equal to 1.8 x · 10 -11 Sieverts per Becquerel (Sv/Bq).
A chlorin based on the formulas 1, 2 or 3: wherein: B is: R 1 is: independently an unsubstituted alkyl group or a fluoroalkyl group consisting of 4-15 carbon atoms R 2 is independently a substituent either in the meta- or para- position of the phenyl ring with R 2 = -OH, -COOH, -COOCH 3, -NH 2, -COOX, -NHX, OX, -NH-Y-COOH, or -CO-Y-NH 2. wherein: X is a polyethyleneglycol-residue with (CH 2 CH 2 O) n CH 3 with n = 1-30 or a carbohydrate moiety Y is peptides or oligopeptides wherein n=1-30. B is: R 1 is: independently an unsubstituted alkyl group or a fluoroalkyl group consisting of 4-15 carbon atoms R 2 is independently a substituent either in the meta- or para- position of the phenyl ring with R 2 = -OH, -COOH, -COOCH 3, -NH 2, -COOX, -NHX, OX, -NH-Y-COOH, or -CO-Y-NH 2. wherein: X is a polyethyleneglycol-residue with (CH 2 CH 2 O) n CH 3 with n = 1-30 or a carbohydrate moiety Y is peptides or oligopeptides wherein n=1-30. R 1 is: independently an unsubstituted alkyl group or a fluoroalkyl group consisting of 4-15 carbon atoms R 2 is independently a substituent either in the meta- or para- position of the phenyl ring with R 2 = -OH, -COOH, -COOCH 3, -NH 2, -COOX, -NHX, OX, -NH-Y-COOH, or -CO-Y-NH 2. wherein: X is a polyethyleneglycol-residue with (CH 2 CH 2 O) n CH 3 with n = 1-30 or a carbohydrate moiety Y is peptides or oligopeptides wherein n=1-30. X is a polyethyleneglycol-residue with (CH 2 CH 2 O) n CH 3 with n = 1-30 or a carbohydrate moiety Y is peptides or oligopeptides wherein n=1-30.
A leak test system for leak testing at least one battery cell, said cell being sealed and comprising parts and substances which are necessary to the operation of the battery cell, the system comprising the following components: - a vacuum chamber, - a vacuum pump connected to said vacuum chamber, - a detecting and measuring system connected to said vacuum chamber to detect gases and/or vapors which can leak from said cell, said gases and/or vapors deriving from the parts and/or the substances inside in the cell, and - a capillary element which connects the detecting and measuring system to the vacuum chamber and through which the gases and/or vapors leaking from said cell flow, characterized in that said leak test system further comprises heating devices adapted to heat at least one of said components of the leak test system to prevent residues of the gases and/or vapors leaking from the cell from being deposited on the internal walls of said components, thereby making the leak test system substantially memory-free. - a vacuum chamber, - a vacuum pump connected to said vacuum chamber, - a detecting and measuring system connected to said vacuum chamber to detect gases and/or vapors which can leak from said cell, said gases and/or vapors deriving from the parts and/or the substances inside in the cell, and - a capillary element which connects the detecting and measuring system to the vacuum chamber and through which the gases and/or vapors leaking from said cell flow,
A motor vehicle with an airbag module which has at least one airbag and at least one gas generator which are accommodated in an airbag housing, wherein the airbag module with the airbag housing can be fastened to a fastening frame which is connected to a wall portion of the dashboard, wherein the airbag housing for mounting can be placed on the wall portion and can be longitudinally displaced into a holding position in which the airbag housing is held in positive manner by the fastening frame, wherein the airbag housing and/or the fastening frame are configured such that the airbag housing upon the longitudinal displacement of the airbag module into the holding position latches on the fastening frame, so that the airbag housing is secured against longitudinal displacement out of the holding position, wherein the airbag housing on at least two opposing sides has a plurality of tongues protruding laterally outwards, wherein the tongues arranged on one side next to one another are in each case spaced apart from each other by at least one tongue width (b), and that the fastening frame has corresponding holding elements for the tongues of the airbag housing, so that the fastened airbag module is held in positive manner with the tongues by the holding elements, characterised in that the airbag housing is an injection-moulded plastics material part made from a plastics material reinforced with glass fibres or glass spheres, the tongues being embodied in one part with the airbag housing proper and being reinforced with additional ribbing.
A voltage sensor device for use in medium- or high voltage application, the voltage sensor device comprising: a voltage sensor; an insulating housing; a signal cable connector; an output cable; and a signal and/or data memory element; wherein, the output cable is connected to the insulating housing wherein the signal cable connector is connected to an end of the output cable outside of the insulating housing; wherein, the signal and/or data memory element is integrated into the signal cable connector; wherein, the signal and/or data memory element is configured to store individual historical sensing data of the voltage sensor device and store an individual calibration data set of the voltage sensor device or an actual transformation ratio information of the voltage sensor device; wherein, the voltage sensor comprises a voltage divider; wherein the insulating housing has a primary terminal of the voltage sensor; wherein a primary impedance of the voltage divider is located in the insulating housing and a first end of the primary impedance is connected to the primary terminal; wherein a secondary impedance of the voltage divider is located in the signal cable connector and a first end of the secondary impedance is connected to a second end of the primary impedance through the output cable; and wherein the signal cable connector is configured to connect to a measuring device, wherein the signal cable connector is configured to connect the measuring device to the signal and/or data memory element and configured to connect the measuring device to the voltage divider. a voltage sensor; an insulating housing; a signal cable connector; an output cable; and a signal and/or data memory element; wherein, the output cable is connected to the insulating housing wherein the signal cable connector is connected to an end of the output cable outside of the insulating housing; wherein, the signal and/or data memory element is integrated into the signal cable connector; wherein, the signal and/or data memory element is configured to store individual historical sensing data of the voltage sensor device and store an individual calibration data set of the voltage sensor device or an actual transformation ratio information of the voltage sensor device; wherein, the voltage sensor comprises a voltage divider; wherein the insulating housing has a primary terminal of the voltage sensor; wherein a primary impedance of the voltage divider is located in the insulating housing and a first end of the primary impedance is connected to the primary terminal; wherein a secondary impedance of the voltage divider is located in the signal cable connector and a first end of the secondary impedance is connected to a second end of the primary impedance through the output cable; and wherein the signal cable connector is configured to connect to a measuring device, wherein the signal cable connector is configured to connect the measuring device to the signal and/or data memory element and configured to connect the measuring device to the voltage divider.