mhurhangee/ep-ind-claims huggingface dataset:
An oral care implement comprising a head having tooth cleaning elements, a reservoir for storing a liquid, an outlet disposed in the head and the outlet being connected to the reservoir, a piezoelectric pump disposed in the head beneath the tooth cleaning elements to deliver a liquid from the reservoir via the outlet, the piezoelectric pump including a piezoelectric actuator fixed on a flexible membrane which is on a pump chamber, a first double valve flap that allows liquid to flow only from the reservoir to said pump chamber and a second double valve flap that allows the liquid to flow only from said pump chamber toward the outlet, and wherein the reservoir is a collapsible bag or container that ensures that negative pressure does not build up in the reservoir.
A display device comprising a pad, the display device comprising: a display area and a pad area, the pad being adapted to connect a gate line and a data line from one or more drivers to display elements in a pixel area, and the pad comprising: an oxide semiconductor layer (817, 917) formed on a substrate; a lower insulation layer (845, 925) formed on the oxide semiconductor layer (817, 917) to at least partially overlap the oxide semiconductor layer (817, 917); a line layer (855; 935) formed on the lower insulation layer (845, 925); an upper insulation layer (865, 945, 965) formed on the line layer (855; 935); and a pad electrode (875; 975) formed on the upper insulation layer (865, 945, 965) and connected to the line layer (855; 935) through a contact hole formed in the upper insulation layer (865, 945, 965). a display area and a pad area, the pad being adapted to connect a gate line and a data line from one or more drivers to display elements in a pixel area, and the pad comprising: an oxide semiconductor layer (817, 917) formed on a substrate; a lower insulation layer (845, 925) formed on the oxide semiconductor layer (817, 917) to at least partially overlap the oxide semiconductor layer (817, 917); a line layer (855; 935) formed on the lower insulation layer (845, 925); an upper insulation layer (865, 945, 965) formed on the line layer (855; 935); and a pad electrode (875; 975) formed on the upper insulation layer (865, 945, 965) and connected to the line layer (855; 935) through a contact hole formed in the upper insulation layer (865, 945, 965). an oxide semiconductor layer (817, 917) formed on a substrate; a lower insulation layer (845, 925) formed on the oxide semiconductor layer (817, 917) to at least partially overlap the oxide semiconductor layer (817, 917); a line layer (855; 935) formed on the lower insulation layer (845, 925); an upper insulation layer (865, 945, 965) formed on the line layer (855; 935); and a pad electrode (875; 975) formed on the upper insulation layer (865, 945, 965) and connected to the line layer (855; 935) through a contact hole formed in the upper insulation layer (865, 945, 965).
Medical instrument with a shank, at the proximal end of which a handle is arranged, wherein the shank is mounted so as to be rotatable about its longitudinal axis on the handle and can be secured in various positions of rotation relative to the handle via a locking mechanism, wherein the locking mechanism is designed as a latching mechanism which has at least one perforated disk, provided with recesses, and also latching elements, wherein the latching elements and/or the at least one perforated disk are spring-loaded relative to each other, and at least one latching element engages in a corresponding recess of the at least one perforated disk in order to fix the shank, wherein the latching elements are spring-loaded in the direction of the at least one perforated disk, characterized in that the distance (d r) between two latching elements arranged next to each other differs from the distance (d a) between two recesses arranged next to each other on the at least one perforated disk.
A terminal apparatus (1A, 1B, 1C) comprising: a coding unit configured to map, to a set of resource elements: a first sequence for an uplink shared channel, UL-SCH; a second sequence for a channel state information, CSI, -part 1; and a third sequence for a CSI-part 2, wherein each of the resource elements of the set is identified by an index pair formed of a subcarrier index for a physical uplink shared channel, PUSCH, and an orthogonal frequency division multiplexing, OFDM, symbol index for the PUSCH; and a transmitter configured to transmit the PUSCH, characterized in that the first sequence is mapped to a resource element group, the resource element group being formed of resource elements of one or multiple second antenna ports, the resource elements of the resource element group having the index pairs being the same as the index pairs of the resource elements of one or multiple first antenna ports to which an uplink phase tracking reference signal, UL PTRS, corresponding to the first antenna port is mapped, the second sequence is mapped avoiding the resource element group, the mapping of the second sequence is given, the giving of the mapping of the second sequence is based on the resource element group, the third sequence is mapped to the resource element group, and the resource element group is given based on a number of hybrid automatic repeat request acknowledgement, HARQ-ACK, bits mapped to the PUSCH. a coding unit configured to map, to a set of resource elements: a first sequence for an uplink shared channel, UL-SCH; a second sequence for a channel state information, CSI, -part 1; and a third sequence for a CSI-part 2, a first sequence for an uplink shared channel, UL-SCH; a second sequence for a channel state information, CSI, -part 1; and a third sequence for a CSI-part 2, wherein each of the resource elements of the set is identified by an index pair formed of a subcarrier index for a physical uplink shared channel, PUSCH, and an orthogonal frequency division multiplexing, OFDM, symbol index for the PUSCH; and a transmitter configured to transmit the PUSCH, characterized in that the first sequence is mapped to a resource element group, the resource element group being formed of resource elements of one or multiple second antenna ports, the resource elements of the resource element group having the index pairs being the same as the index pairs of the resource elements of one or multiple first antenna ports to which an uplink phase tracking reference signal, UL PTRS, corresponding to the first antenna port is mapped, the second sequence is mapped avoiding the resource element group, the mapping of the second sequence is given, the giving of the mapping of the second sequence is based on the resource element group, the third sequence is mapped to the resource element group, and the resource element group is given based on a number of hybrid automatic repeat request acknowledgement, HARQ-ACK, bits mapped to the PUSCH.
Method for a start safety routine of an electric hand tool device generating at least one rotary movement, with an electric motor and a safety device for disconnecting the transmission of the torque between a tool and the electric motor actuated through a microcontroller on exceeding of a limit value (α G) of a safety routine, characterised in that, in a first method step of the start safety routine, the microcontroller connects the electric motor with the main power supply via a fixed effective resistance, or one determined by the microcontroller, or directly for a short time interval (T 0), in a second method step the microcontroller carries out a measurement of the angle of rotation of the rotor (φ) with a means for determining the angle of rotation or the rotational speed over the time interval (T 0), in a further method step the microcontroller calculates the rotor angle acceleration or a value dependent thereon, and in a last method step the microcontroller defines from the rotor angle acceleration or the value dependent thereon, via a readable transformation, the limit value (α G) and/or the shut-off time (t A).
A machine for inserting honeycomb separators in boxes, comprising: at least two gripping elements (10, 20) predisposed such as to associate to a first transversal wall and to a second transversal wall of a honeycomb and to rotate by a predetermined angle about a respective rotation axis (Z1, Z2); a first rotation mechanism, predisposed to rotate said gripping elements (10, 20) about the respective rotation axes (Z1, Z2); a crossbar, which rotates on a horizontal plane without modifying its inclination with respect to a longitudinal axis and to a transversal axis, and a connecting mechanism which connects the crossbar to the gripping elements (10, 20), said connecting mechanism being an articulated parallelogram; said connecting mechanism that connects the crossbar to the gripping elements (10, 20) comprising a crank (11, 21), associated to each gripping element (10, 20), which rotates about a rotation axis (Z1, Z2) solidly with the gripping element (10, 20) and is pivoted to the crossbar about an auxiliary rotation axis (Z1a, Z2a) by means of a pin (11a,21a); wherein the position of the auxiliary rotation axes (Z1a, Z2a) of the cranks (11, 21) of the gripping elements (10, 20) can be varied along the longitudinal direction by means of said pins (11a,21a); characterised in that the crossbar is activated to rotate by means of a first crank and a second crank which rotate about vertical axes (3r, 4r) and are pivoted to the crossbar rotatably about vertical axes (3t, 4t) such that an articulated parallelogram is defined between the first crossbar and the two cranks (3, 4).
An application module startup method, wherein the method is applied to a first device, the first device comprises a system module, and the method comprises: Receiving a first message by the system module, wherein the first message is associated with a first application module, and the first application module is a software module in a first application; in response to receiving the first message, determining, by the system module, whether the first application module is installed on the first device; in response to determining that the first application module is not installed on the first device, sending a second message to a first server by the system module, wherein the second message is used to download the first application module; receiving a third message from the first server by the system module, wherein the third message is a message that is associated with the first application module and that is obtained by the first server in response to receiving the second message; and in response to receiving the third message, downloading, installing and starting the first application module on the first device by the system module; wherein the first device further comprises a second application module, the second application module is a software module in a second application, and the first application is the same as or different from the second application; and the method specifically comprises: in response to receiving a first operation of a user, sending the first message to the system module by the second application module. Receiving a first message by the system module, wherein the first message is associated with a first application module, and the first application module is a software module in a first application; in response to receiving the first message, determining, by the system module, whether the first application module is installed on the first device; in response to determining that the first application module is not installed on the first device, sending a second message to a first server by the system module, wherein the second message is used to download the first application module; receiving a third message from the first server by the system module, wherein the third message is a message that is associated with the first application module and that is obtained by the first server in response to receiving the second message; and in response to receiving the third message, downloading, installing and starting the first application module on the first device by the system module; wherein the first device further comprises a second application module, the second application module is a software module in a second application, and the first application is the same as or different from the second application; and the method specifically comprises: in response to receiving a first operation of a user, sending the first message to the system module by the second application module.
Targeting system (1, 1') for the guided insertion of a guide wire or a bone screw comprising: - a stabilization body (2, 2') which can be fixed to the bone by means of stabilization screws; - a guide sleeve adapted to receive a guide cannula for the insertion of said guide wire or bone screw so that said guide cannula is able to translate along a sleeve axis of said guide sleeve keeping inserted within said guide sleeve; - articulated connection means adapted to connect said stabilization body (2, 2') to said guide sleeve and allow the relative spatial position of said guide sleeve to be varied with respect to said stabilization body (2, 2'); wherein said articulated connection means allow at least a relative translation along an axis that is orthogonal to said sleeve axis of said guide sleeve, and wherein said stabilization body (2, 2') has, at each of a first and second end, an insertion hole for the insertion of a stabilization screw and locking means for locking said stabilization screw within said insertion hole; said insertion hole being a through hole having an insertion hole axis; characterised in that said locking means comprise a locking element and a through locking hole having a locking hole axis orthogonal to said insertion hole axis and partially confluent into said insertion hole; said locking element comprising at least one bar adapted to be coaxially introduced into said locking hole; said bar comprising a flattening lying on a plane parallel to said locking hole axis when said bar is inserted into said locking hole; said locking means have a screw locking configuration alternative to a screw sliding configuration; in the screw sliding configuration, said bar is inserted into said locking hole with said flattening parallel to said insertion hole axis and facing said stabilization screw in such a way that said stabilization screw is freely slidable within said insertion hole; in the screw locking configuration, said bar is in a rotated position with respect to the screw sliding configuration and interfering with said stabilization screw which appears to be locked within said insertion hole. - a stabilization body (2, 2') which can be fixed to the bone by means of stabilization screws; - a guide sleeve adapted to receive a guide cannula for the insertion of said guide wire or bone screw so that said guide cannula is able to translate along a sleeve axis of said guide sleeve keeping inserted within said guide sleeve; - articulated connection means adapted to connect said stabilization body (2, 2') to said guide sleeve and allow the relative spatial position of said guide sleeve to be varied with respect to said stabilization body (2, 2');
A composition for use in intraocular irrigation, the composition comprising one or more sulfur molecules selected from the group consisting of active sulfur molecules represented by Formula and Formula: R 1 S n H wherein R 1 is selected from the group consisting of L-cysteine (Cys), homocysteine (Hcys) and glutathione, and n is an integer of 1 or more; and R 2 S n R 3 wherein R 2 and R 3 are independently selected from the group consisting of L-cysteine (Cys), homocysteine (Hcys) and glutathione, and n is an integer of 2 or more.
A traverse device in a yarn winding apparatus wherein the yarn winding apparatus includes a bobbin holder on which a plurality of take-up tubes are installed and supported on the same shaft and a plurality of traverse devices each including a yarn guide and configured to reciprocate the yarn guide to traverse a yarn with respect to a corresponding take-up tube, wherein each of the traverse devices allows a reciprocating range of reciprocation of the yarn guide to be varied and is located in association with the corresponding take-up tube; wherein the traverse device further includes a traverse device main body including a yarn guide configured to be able to catch a yarn, the traverse device main body enabling the yarn guide to reciprocate, and a traverse control section configured to control operation of the traverse device main body, and wherein the yarn guide of the traverse device includes paired inclined portions each having an inclined surface along which the yarn climbs and a yarn accommodating groove formed between the paired inclined portions to accommodate and catch the yarn; characterized in that the traverse device further includes a yarn tension varying means for temporarily increasing the tension of the yarn when the yarn guide is allowed to catch the yarn.
A folding cargo compartment floor, which has a textile covering layer; and under the folding cargo compartment floor, at least one receptacle is provided, whose opening is closed by a cover flap of the folding cargo compartment floor, wherein the cover flap is linked to a cargo compartment floor in a hinge-like fashion, the cover flap and the cargo compartment floor, as components (2, 3) of a hinge-like connection, have directly adjacent regions (4, 5), which are embodied in at least some places to engage with each other like a set of teeth; an upper region of the one component (2, 3) as a layer always covers a lower region of the set of teeth on the respective other component (2, 3), the regions (4, 5) of the cover flap and the cargo compartment floor that are adjacent to each other in an assembled position, as components of the hinge-like connection, constitute end surfaces (4, 5) that extend in a straight line on a top surface, wherein the end surface of the cargo compartment floor has an essentially rectangular tooth protruding from it, which functions as part of the continuous set of teeth and opposite of which a corresponding recess is correspondingly provided on the side of the end surface of the cover flap, characterised in that the upper layers of the components (2, 3), in a section lying horizontally above a region of the recess, have a rounding, and that the rounding is oriented toward the underlying plane of the set of teeth.
Use of a component containing a dispersion strengthened nickel-based alloy comprising the following in weight% (wt%): C 0.05-0.2; Si max 1.5; Mn max 0.5; Cr 15-20; Al 3-6; Fe 15-25 Co max 10; N 0.03-0.15; O max 0.5; one or more elements selected from the group consisting of Ta, Zr, Hf, Ti and Nb 0.25-2.5; one or more elements selected from the group consisting of REM max 0.5; balance Ni and normally occurring impurities in a molten carbonate salt mixture environment. one or more elements selected from the group consisting of Ta, Zr, Hf, Ti and Nb 0.25-2.5; one or more elements selected from the group consisting of REM max 0.5; balance Ni and normally occurring impurities in a molten carbonate salt mixture environment.
A method of making a paper or paper board, in which method a stock comprising cellulosic fiber pulp is prepared and a web is formed from the stock, wherein cut pulp is prepared by cutting basic cellulosic fiber pulp at the consistency of at least 25 % and the SR number of the cut pulp is at most 20 % higher than that of the basic pulp, and wherein the cut pulp is used as a raw material in the preparation of the stock, characterized in that the pulp is cut so that the average fiber length of the basic cellulosic fiber pulp is decreased by more than 25%.
An energy conversion system, comprising: a generator which generates electrical power in response to movement, wherein the generator comprises first and second elements which are moved relatively to each other to generate power; and a drive mechanism for controlling the relative speed, the spacing between, or the relative orientations or positions of the first and second elements during an energy generation mode to decrease the variation in output power, or voltage, or current of the generator, wherein the drive mechanism comprises a controller which is adapted to maintain a constant output power, or voltage, or current during the energy generation mode, characterized in that the drive mechanism is further for bringing the first and second elements into and out of contact with each other, wherein the energy conversion system has a charging mode in which the first and second elements are brought into contact by the drive mechanism and an energy generation mode in which the first and second elements are out of contact. a generator which generates electrical power in response to movement, wherein the generator comprises first and second elements which are moved relatively to each other to generate power; and a drive mechanism for controlling the relative speed, the spacing between, or the relative orientations or positions of the first and second elements during an energy generation mode to decrease the variation in output power, or voltage, or current of the generator, wherein the drive mechanism comprises a controller which is adapted to maintain a constant output power, or voltage, or current during the energy generation mode, characterized in that the drive mechanism is further for bringing the first and second elements into and out of contact with each other, wherein the energy conversion system has a charging mode in which the first and second elements are brought into contact by the drive mechanism and an energy generation mode in which the first and second elements are out of contact.
A partial knockout mutant allele of an IND gene, wherein the IND gene comprises a nucleic acid molecule selected from the group consisting of: (a) a nucleic acid molecule which comprises at least 90% sequence identity to SEQ ID NO: 1, SEQ ID NO: 3 from the nucleotide at position 46 to the nucleotide at position 633, SEQ ID NO: 3, SEQ ID NO: 5, or SEQ ID NO: 7; (b) a nucleic acid molecule encoding an amino acid sequence comprising at least 90% sequence identity to SEQ ID NO: 2, SEQ ID NO: 4 from the amino acid at position 16 to the amino acid at position 210, or SEQ ID NO: 4, wherein said partial knockout mutant allele comprises one or more mis-sense mutations in the nucleic acid sequence of said IND gene which results in the production of an IND protein wherein at least one amino acid selected from the amino acid at a position corresponding to position 124 of SEQ ID NO: 2, the amino acid at a position corresponding to position 146 of SEQ ID NO: 2, the amino acid at a position corresponding to position 159 of SEQ ID NO: 2, the amino acid at a position corresponding to position 136 of SEQ ID NO: 4, the amino acid at a position corresponding to position 139 of SEQ ID NO: 4, or the amino acid at a position corresponding to position 142 of SEQ ID NO: 4, is substituted with another amino acid. (a) a nucleic acid molecule which comprises at least 90% sequence identity to SEQ ID NO: 1, SEQ ID NO: 3 from the nucleotide at position 46 to the nucleotide at position 633, SEQ ID NO: 3, SEQ ID NO: 5, or SEQ ID NO: 7; (b) a nucleic acid molecule encoding an amino acid sequence comprising at least 90% sequence identity to SEQ ID NO: 2, SEQ ID NO: 4 from the amino acid at position 16 to the amino acid at position 210, or SEQ ID NO: 4,