mhurhangee/patent-ind-claim-en huggingface dataset:
A resistor comprising: a poly resistor on n-well, the poly resistor being electrically isolated from the n-well by a first shallow trench isolator, wherein the poly-resistor on n-well comprises a top contact and a bottom contact, the top contact for receiving a first voltage, the bottom contact for receiving a second voltage and wherein the first voltage is positive relative to the second voltage, wherein the n-well is electrically connected to the top contact such that the connection of the n-well is biased at a positive voltage compared to a voltage over the resistor when the top contact and the bottom contact receive the first voltage and the second voltage respectively; and a poly resistor on p-well, the poly resistor being electrically isolated from the p-well by a second shallow trench isolator, wherein the poly-resistor on p-well comprises a top contact and a bottom contact, the top contact for receiving the first voltage, the bottom contact for receiving the second voltage, wherein the p-well is electrically connected to the bottom contact such that the connection of the p-well is biased at a negative voltage compared to the voltage over the resistor when the top contact and the bottom contact receive the first voltage and the second voltage, respectively; wherein the poly resistor on n-well and the poly resistor on p-well are coupled in parallel. a poly resistor on n-well, the poly resistor being electrically isolated from the n-well by a first shallow trench isolator, wherein the poly-resistor on n-well comprises a top contact and a bottom contact, the top contact for receiving a first voltage, the bottom contact for receiving a second voltage and wherein the first voltage is positive relative to the second voltage, wherein the n-well is electrically connected to the top contact such that the connection of the n-well is biased at a positive voltage compared to a voltage over the resistor when the top contact and the bottom contact receive the first voltage and the second voltage respectively; and a poly resistor on p-well, the poly resistor being electrically isolated from the p-well by a second shallow trench isolator, wherein the poly-resistor on p-well comprises a top contact and a bottom contact, the top contact for receiving the first voltage, the bottom contact for receiving the second voltage, wherein the p-well is electrically connected to the bottom contact such that the connection of the p-well is biased at a negative voltage compared to the voltage over the resistor when the top contact and the bottom contact receive the first voltage and the second voltage, respectively; wherein the poly resistor on n-well and the poly resistor on p-well are coupled in parallel.
Method for applying liquid by means of an agricultural sprayer, in particular a field sprayer, comprising the steps of: - detecting rows of plants on an agricultural land (N); and - applying liquid onto the agricultural land (N) by means of a plurality of application elements (12a-12k, 14a-14j), which are arranged along a spray boom of the agricultural sprayer transversely to the direction of travel; wherein the application of liquid along row regions (22a-22k) which have rows of plants (20a-20k) running in the direction of travel differs from the application of liquid along intermediate regions (24a-24j) which are located between two rows of plants (20a-20k) running in the direction of travel, wherein a first liquid is applied along the row regions (22a-22k) and a second liquid is applied along the intermediate regions (24a-24j), characterized in that the first liquid is supplied to a plurality of or all application elements (12a-12f) via a separate liquid circuit and/or is produced by means of an active-ingredient direct feed. - detecting rows of plants on an agricultural land (N); and - applying liquid onto the agricultural land (N) by means of a plurality of application elements (12a-12k, 14a-14j), which are arranged along a spray boom of the agricultural sprayer transversely to the direction of travel; wherein the application of liquid along row regions (22a-22k) which have rows of plants (20a-20k) running in the direction of travel differs from the application of liquid along intermediate regions (24a-24j) which are located between two rows of plants (20a-20k) running in the direction of travel, wherein a first liquid is applied along the row regions (22a-22k) and a second liquid is applied along the intermediate regions (24a-24j), characterized in that the first liquid is supplied to a plurality of or all application elements (12a-12f) via a separate liquid circuit and/or is produced by means of an active-ingredient direct feed.
An authentication feature having an optical storage phosphor based on a garnet structure and having the following composition: ( Gd x Ln y ) ( Ga m Al n A k ) O 12±d : Ce p Qq R r T t , wherein - Ln comprises at least one of the following elements: La, Lu, Y; - A comprises at least one of the following elements: Ge, Sc, Si; - Q comprises at least one of the following elements: Ag, Gr, Hf, Mo, Nb, Sn, Ta, Ti, W, Zr; - R comprises at least one of the following elements: Bi, Pr, Nd, Sm, Eu, Tb, Dy, Ho, Er, Tm, Yb; - T comprises at least one of the following elements: B, F, Li, Mg, K, Na; - 1.0 ≤ x ≤ 3.2 and 0 < y ≤ 1.65; - 0.5 ≤ m ≤ 5.2, 0 ≤ n ≤ 4.7 and 0 ≤ k ≤ 0.5, wherein 4.8 ≤ m+n+k ≤ 5.2; - 0 ≤ p ≤ 0.1, wherein p=0 only for Q=Zr; - 0 ≤ q ≤ 0.05; - 0 ≤ r ≤ 0.05; - 0 ≤ t ≤ 0.1; - 0 ≤ d ≤ 0.5; - p+q > 0.002; - q+r > 0.002; and 2.8 ≤ x+y+p+r ≤ 3.2. - Ln comprises at least one of the following elements: La, Lu, Y; - A comprises at least one of the following elements: Ge, Sc, Si; - Q comprises at least one of the following elements: Ag, Gr, Hf, Mo, Nb, Sn, Ta, Ti, W, Zr; - R comprises at least one of the following elements: Bi, Pr, Nd, Sm, Eu, Tb, Dy, Ho, Er, Tm, Yb; - T comprises at least one of the following elements: B, F, Li, Mg, K, Na; - 1.0 ≤ x ≤ 3.2 and 0 < y ≤ 1.65; - 0.5 ≤ m ≤ 5.2, 0 ≤ n ≤ 4.7 and 0 ≤ k ≤ 0.5, wherein 4.8 ≤ m+n+k ≤ 5.2; - 0 ≤ p ≤ 0.1, wherein p=0 only for Q=Zr; - 0 ≤ q ≤ 0.05; - 0 ≤ r ≤ 0.05; - 0 ≤ t ≤ 0.1; - 0 ≤ d ≤ 0.5; - p+q > 0.002; - q+r > 0.002; and 2.8 ≤ x+y+p+r ≤ 3.2.
A straddled vehicle comprising: a rear arm ; an axle shaft attached to the rear arm ; a rear wheel supported by the axle shaft ; a rear fender unit overlapping a portion of the rear wheel as seen from behind the vehicle, wherein the rear fender unit is attached to the axle shaft , and the rear fender unit includes: an attachment portion for a license plate , characterized by a license plate lamp for illuminating the license plate attached to the attachment portion ; an electrical wire connected to the license plate lamp ; and a length adjusting portion for adjusting a length of the electrical wire in response to a position of the rear wheel relative to the rear arm . a rear arm ; an axle shaft attached to the rear arm ; a rear wheel supported by the axle shaft ; a rear fender unit overlapping a portion of the rear wheel as seen from behind the vehicle, wherein the rear fender unit is attached to the axle shaft , and the rear fender unit includes: an attachment portion for a license plate , characterized by a license plate lamp for illuminating the license plate attached to the attachment portion ; an electrical wire connected to the license plate lamp ; and a length adjusting portion for adjusting a length of the electrical wire in response to a position of the rear wheel relative to the rear arm . an attachment portion for a license plate , characterized by a license plate lamp for illuminating the license plate attached to the attachment portion ; an electrical wire connected to the license plate lamp ; and a length adjusting portion for adjusting a length of the electrical wire in response to a position of the rear wheel relative to the rear arm .
An electrically insulating rolling bearing for rotatably mounting a rotating component with respect to a support part , comprising: - a metallic outer ring having a first rolling element raceway surface formed on the inner circumference, - a metallic inner ring having a second rolling element raceway surface formed on the outer circumference, - a plurality of metallic rolling elements arranged in a rolling manner between the first and the second rolling element raceway surfaces , - an insulation coating applied at least partially to the outer ring and/or the inner ring and/or the rolling elements comprising at least one insulation layer made of at least one electrically non-conductive material, wherein the insulation coating adjoining a metallic surface of the outer ring and/or the inner ring comprises an adhesion promoter layer and/or the insulation coating adjoining a metallic surface of each rolling element comprises an adhesion promoter layer , wherein the adhesion promoter layer consists of an adhesion promoter material which is formed by an electrically conductive metal oxynitride, and wherein the electrically non-conductive material of the at least one insulation layer is formed from a metal oxynitride such that there is an electrical resistance of > 200 megohms between the rotating component and the support part . - a metallic outer ring having a first rolling element raceway surface formed on the inner circumference, - a metallic inner ring having a second rolling element raceway surface formed on the outer circumference, - a plurality of metallic rolling elements arranged in a rolling manner between the first and the second rolling element raceway surfaces , - an insulation coating applied at least partially to the outer ring and/or the inner ring and/or the rolling elements comprising at least one insulation layer made of at least one electrically non-conductive material, wherein the insulation coating adjoining a metallic surface of the outer ring and/or the inner ring comprises an adhesion promoter layer and/or the insulation coating adjoining a metallic surface of each rolling element comprises an adhesion promoter layer , wherein the adhesion promoter layer consists of an adhesion promoter material which is formed by an electrically conductive metal oxynitride, and wherein the electrically non-conductive material of the at least one insulation layer is formed from a metal oxynitride such that there is an electrical resistance of > 200 megohms between the rotating component and the support part .
Method for operating a hybrid drive apparatus having a first drive unit and a second drive unit , wherein a drive torque of the hybrid drive apparatus is produced only by means of the first drive unit in a first operating mode and is produced jointly by the first drive unit and the second drive unit in a second operating mode, and wherein an actual rotational speed of the second drive unit is brought into line with a target rotational speed upon a switchover from the first operating mode to the second operating mode, which corresponds to the actual rotational speed of the first drive unit , characterised in that , in order to bring the actual rotational speed into line, once at the beginning of bringing into line, a target rotational speed gradient is selected from a plurality of target rotational speed gradients and a target torque, determined on the basis of the target rotational speed gradients, is set at the second drive unit , wherein the target torque is determined by means of a control from the target rotational speed gradients, while an actual rotational speed gradient is controlled on the target rotational speed gradient, and wherein the control comprises a pre-control, wherein the target torque is determined on the basis of a moment of inertia of the second drive unit and the target rotational speed gradients.
Hydraulic thermal relief device comprising a housing having an inlet bore forming an inlet and an outlet bore forming an outlet , and a relief channel connecting the inlet and the outlet , characterized in that a microporous structure is arranged between inlet and outlet , wherein a flow rate of hydraulic fluid through the device is controlled by a pore size and a thickness of the microporous structure , wherein the inlet bore comprises a diameter smaller than the diameter of the outlet bore , the microporous structure is part of the housing characterised in that the whole thermal device is sintered as a single part with regions of differing densities.
A device for cleaning an inner wall surface of a bell jar for use in production of polycrystalline silicon, by causing nozzles (112; 122) to discharge a cleaning liquid at the inner wall surface , the cleaning liquid containing abrasive particles, the nozzles (112; 122) including first nozzles and second nozzles, the device comprising: - a first cleaning unit including the first nozzles of the device, which are arranged along at least half an arc of an upper-part curved inner wall surface of the bell jar , the arc passing an apex of the upper-part curved inner wall surface , the upper-part curved inner wall surface being positioned up of a cylindrical-body lateral inner wall surface of the bell jar ; - a second cleaning unit including the second nozzles of the device, which are arranged along the cylindrical-body lateral inner wall surface and along a height direction which is from a lower part to an upper part of the bell jar ; and - a driving mechanism connected to the first cleaning unit and the second cleaning unit and configured to cause the first cleaning unit and the second cleaning unit to move relative to the bell jar , in a state where the nozzles (112; 122) of the device are in both of (i) a first state in which the first nozzles of the first cleaning unit are put closer to the upper-part curved inner wall surface than is a center in the height direction of the bell jar and (ii) a second state in which the second nozzles of the second cleaning unit are put closer to the cylindrical-body lateral inner wall surface than is an axis of the bell jar which axis passes through the apex. - a first cleaning unit including the first nozzles of the device, which are arranged along at least half an arc of an upper-part curved inner wall surface of the bell jar , the arc passing an apex of the upper-part curved inner wall surface , the upper-part curved inner wall surface being positioned up of a cylindrical-body lateral inner wall surface of the bell jar ; - a second cleaning unit including the second nozzles of the device, which are arranged along the cylindrical-body lateral inner wall surface and along a height direction which is from a lower part to an upper part of the bell jar ; and - a driving mechanism connected to the first cleaning unit and the second cleaning unit and configured to cause the first cleaning unit and the second cleaning unit to move relative to the bell jar , in a state where the nozzles (112; 122) of the device are in both of (i) a first state in which the first nozzles of the first cleaning unit are put closer to the upper-part curved inner wall surface than is a center in the height direction of the bell jar and (ii) a second state in which the second nozzles of the second cleaning unit are put closer to the cylindrical-body lateral inner wall surface than is an axis of the bell jar which axis passes through the apex.
A secondary battery, comprising: a housing member having a bent portion defining an open end ; a battery element including a positive electrode, a negative electrode, and an electrolytic solution and housed in the housing member ; a lid member which extends in a cross direction crossing a housing direction of the battery element to the housing member to close the open end of the housing member and has a bottom surface facing the battery element , a top surface opposite to the bottom surface, and a side surface coupled to the bottom surface and the top surface; and a sealing member interposed between the bent portion and the lid member , wherein the bent portion is bent along each of the bottom surface, the side surface and the top surface of the lid member and includes a specific bent portion bent along each of the side surface and the top surface of the lid member , a bending ratio R1 = (L1/D1) × 100 calculated based on an outer diameter D1 of the housing member specified by the bent portion in the cross direction and a bending length L1 of the specific bent portion in the cross direction is 10% or more and 13% or less, and an overlap ratio R2 = (L2/D2) × 100 calculated based on an outer diameter D2 of the lid member in the cross direction and an overlap length L2 in the cross direction of a region where the specific bent portion and the lid member overlap with each other in the housing direction is 6% or more and 9% or less. a housing member having a bent portion defining an open end ; a battery element including a positive electrode, a negative electrode, and an electrolytic solution and housed in the housing member ; a lid member which extends in a cross direction crossing a housing direction of the battery element to the housing member to close the open end of the housing member and has a bottom surface facing the battery element , a top surface opposite to the bottom surface, and a side surface coupled to the bottom surface and the top surface; and a sealing member interposed between the bent portion and the lid member , wherein the bent portion is bent along each of the bottom surface, the side surface and the top surface of the lid member and includes a specific bent portion bent along each of the side surface and the top surface of the lid member , a bending ratio R1 = (L1/D1) × 100 calculated based on an outer diameter D1 of the housing member specified by the bent portion in the cross direction and a bending length L1 of the specific bent portion in the cross direction is 10% or more and 13% or less, and an overlap ratio R2 = (L2/D2) × 100 calculated based on an outer diameter D2 of the lid member in the cross direction and an overlap length L2 in the cross direction of a region where the specific bent portion and the lid member overlap with each other in the housing direction is 6% or more and 9% or less.
A method performed by a first base station of a base-station coordination set in coordination with a second base station of the base-station coordination set to cancel a cross-link interference , the method comprising: receiving, by the first base station and from the second base station , information about a future downlink transmission from the second base station to a second user equipment ; allocating, by the first base station and based on the information, air interface resources to an uplink transmission from a first user equipment to the first base station , the allocating determined to reduce a first cross-link interference to the future downlink transmission at the second user equipment caused by the uplink transmission ; modeling, by the first base station and based on the information, a second cross-link interference to the uplink transmission at the first base station caused by the future downlink transmission ; generating, by the first base station and based on the modeling, a cancelation filter configuration; and applying, by the first base station , the cancelation filter configuration to the uplink transmission to reduce the second cross-link interference . receiving, by the first base station and from the second base station , information about a future downlink transmission from the second base station to a second user equipment ; allocating, by the first base station and based on the information, air interface resources to an uplink transmission from a first user equipment to the first base station , the allocating determined to reduce a first cross-link interference to the future downlink transmission at the second user equipment caused by the uplink transmission ; modeling, by the first base station and based on the information, a second cross-link interference to the uplink transmission at the first base station caused by the future downlink transmission ; generating, by the first base station and based on the modeling, a cancelation filter configuration; and applying, by the first base station , the cancelation filter configuration to the uplink transmission to reduce the second cross-link interference .
A passenger seat egress system comprising a passenger seat area divided from an aisle or other common area by a privacy feature, • wherein the privacy feature offers a primary egress option from the passenger seat area and a secondary egress option from the passenger seat area , • wherein the primary egress option comprises a sliding door mounted on a track system housed within a housing, • and the secondary egress option comprises means for releasing the door from the track system and storing the door in the housing. • wherein the privacy feature offers a primary egress option from the passenger seat area and a secondary egress option from the passenger seat area , • wherein the primary egress option comprises a sliding door mounted on a track system housed within a housing, • and the secondary egress option comprises means for releasing the door from the track system and storing the door in the housing.
A multi-conductor guidewire , comprising: a) an elongate core wire having a core wire length extending from a proximal core wire end to a distal core wire end, wherein the core wire defines an exterior core wire surface having a circumference; b) at least two first electrical conductors supported on the core wire, wherein the first electrical conductors have a first conductor length extending from a first proximal conductor end at or adjacent to the proximal core wire end to a first distal conductor end at or adjacent to distal core wire end; c) at least two first couplers electrically connected to respective ones of the first proximal conductor ends, wherein the first couplers are configured to be electrically connected to an external electrical device; and d) at least two first electrical contacts electrically connected to respective ones of the first distal conductor ends, wherein the first electrical contacts are configured for contact with body tissue, anc characterised in that e) the at least two first electrical conductors are circumferentially separated from each other extending from their respective first coupler to their respective first electrical contact. a) an elongate core wire having a core wire length extending from a proximal core wire end to a distal core wire end, wherein the core wire defines an exterior core wire surface having a circumference; b) at least two first electrical conductors supported on the core wire, wherein the first electrical conductors have a first conductor length extending from a first proximal conductor end at or adjacent to the proximal core wire end to a first distal conductor end at or adjacent to distal core wire end; c) at least two first couplers electrically connected to respective ones of the first proximal conductor ends, wherein the first couplers are configured to be electrically connected to an external electrical device; and d) at least two first electrical contacts electrically connected to respective ones of the first distal conductor ends, wherein the first electrical contacts are configured for contact with body tissue, anc characterised in that e) the at least two first electrical conductors are circumferentially separated from each other extending from their respective first coupler to their respective first electrical contact.