mhurhangee/patent-ind-claim-en huggingface dataset:
Vacuum and/or pressure drum filter device for filtering of a solid material from a suspension, which is formed by the solid material and a liquid, having a device housing , a rotatable filter drum which defines a filter drum longitudinal axis (L1) and which is arranged in the device housing , a gas supply line for supplying a gas into the device housing , a gas supply device for supplying the gas into the gas supply line , and a peeling knife , wherein the gas supply line is provided with a first gas outlet means which comprises one or more gas outlet openings which are formed in a manner extending along the filter drum longitudinal axis (L1) and from which the gas exits into the device housing , and wherein the one or more gas outlet openings are arranged radially outside the filter drum and on a side of the peeling knife , facing away from the filter drum . a device housing , a rotatable filter drum which defines a filter drum longitudinal axis (L1) and which is arranged in the device housing , a gas supply line for supplying a gas into the device housing , a gas supply device for supplying the gas into the gas supply line , and a peeling knife , wherein the gas supply line is provided with a first gas outlet means which comprises one or more gas outlet openings which are formed in a manner extending along the filter drum longitudinal axis (L1) and from which the gas exits into the device housing , and wherein the one or more gas outlet openings are arranged radially outside the filter drum and on a side of the peeling knife , facing away from the filter drum .
Assembly (1; 201; 301) comprising a flowerpot (3; 203; 303) and a liquid reservoir (5; 105; 205; 305), wherein the flowerpot is provided with a base part (7; 207; 307), with a side wall (13; 213; 313) whereof a rim , facing away from the base part, defines an opening leading into the interior of the flowerpot, as well as with a liquid opening which is provided in the base part and/or in a bottommost side wall section of the side wall, close to the base part, wherein the liquid reservoir is provided with a base part (27; 227; 327), as well as with a reservoir side wall (33; 133; 233; 333) whereof a rim , facing away from the base part, defines a liquid reservoir opening leading into the interior of the liquid reservoir, the assembly is further provided with at least one liquid drainage hole (25; 125; 225; 325) situated at a distance from the base part of the liquid reservoir, so that the assembly is able to be filled with liquid, for example water or an aqueous solution, with a maximum liquid volume , wherein the reservoir side wall comprises, at least in part, the same shape as a part of the side wall of the flowerpot, so that a part of an inner side of the reservoir side wall is able to be displaced over a bottommost part of the outer side of the side wall of the flowerpot in order to provide a connection (50; 250; 350) therebetween, which extends around the centre axis of the assembly, characterised in that the connection is established by constructing at least those parts of the side wall of the flowerpot and the reservoir side wall which are to be connected to one another in the shape of a side wall of a truncated cone, or in the shape of side wall parts of a frustum, wherein by sliding the side walls, or parts of the side walls, which, viewed from the base parts, extend conically, one over the other, at a certain point sufficient clamping is attained, with the result that the connection is established.
A communications device , comprising: a housing ; a wireless transceiver and processor carried by the housing and operative with each other; an input screen carried by the housing and comprising a plurality of spaced transceivers (54a-54d) positioned at the input screen and connected to the processor and each configured to transmit a millimeter wave RF signal comprising a multi-phased ramp signal and receive reflected signals from an object positioned close to the input screen; wherein said processor is configured to determine the location of the object relative to the input screen based on the reflected signals received at each transceiver and wherein each transceiver (54a-54d) is configured to transmit about a 60 GHz RF signal within a several hundred MHz tuning range, wherein each transceiver (54a-54d) is configured to transmit the RF signal at a different carrier frequency and detected intermediate frequencies (IF) received signals are processed to determine the object's location through their Intermediate Frequency (IF) offset. a housing ; a wireless transceiver and processor carried by the housing and operative with each other; an input screen carried by the housing and comprising a plurality of spaced transceivers (54a-54d) positioned at the input screen and connected to the processor and each configured to transmit a millimeter wave RF signal comprising a multi-phased ramp signal and receive reflected signals from an object positioned close to the input screen; wherein said processor is configured to determine the location of the object relative to the input screen based on the reflected signals received at each transceiver and wherein each transceiver (54a-54d) is configured to transmit about a 60 GHz RF signal within a several hundred MHz tuning range, wherein each transceiver (54a-54d) is configured to transmit the RF signal at a different carrier frequency and detected intermediate frequencies (IF) received signals are processed to determine the object's location through their Intermediate Frequency (IF) offset.
Flow meter, wherein a cross-section profile of a measuring channel is formed by hydroforming, wherein the measuring channel has recesses for sensors accommodated in coupling members , characterized in that only a region of the measuring channel is hydroformed which is not located in the region of an inlet and an outlet , so that the cross-section profile in the region of the inlet and the outlet is an initial profile.
Method for assembling a pallet , said pallet comprising at least two rows of blocks (100, 100', 100") nailed to boards of a board element comprising at least two boards , characterized in that the nailing of said rows of blocks to said board element includes the following sequence: - supplying a first set of at least two blocks at respective supply points, such that the blocks are aligned with one another forming a row, and placing the board element in contact with the blocks; - nailing the board element to the blocks located at the respective supply points; - moving the assembly of board element and blocks previously nailed to a new nailing position, and supplying a second set of at least two blocks at said respective supply points; - nailing together the board element in the new nailing position and the second set of at least two blocks located at the respective supply points. - supplying a first set of at least two blocks at respective supply points, such that the blocks are aligned with one another forming a row, and placing the board element in contact with the blocks; - nailing the board element to the blocks located at the respective supply points; - moving the assembly of board element and blocks previously nailed to a new nailing position, and supplying a second set of at least two blocks at said respective supply points; - nailing together the board element in the new nailing position and the second set of at least two blocks located at the respective supply points.
A method of position determination using an image capturing device comprised in user equipment, wherein the user equipment comprises a position sensor and an orientation sensor, the method comprising: receiving position measurements from said position sensor ; receiving a selection of one or more anchors based on said position measurements wherein the selection includes the position of each anchor ; receiving orientation measurements from said orientation sensor ; determining whether any of said one or more anchors is visible to said image capturing device based on said position and orientation measurements ; activating said image capturing device to capture an image including one or more selected anchors when any of the selected one or more anchors is visible to said image capturing device ; and analyzing the image to determine the position of the image capturing device relative to the one or more anchors . receiving position measurements from said position sensor ; receiving a selection of one or more anchors based on said position measurements wherein the selection includes the position of each anchor ; receiving orientation measurements from said orientation sensor ; determining whether any of said one or more anchors is visible to said image capturing device based on said position and orientation measurements ; activating said image capturing device to capture an image including one or more selected anchors when any of the selected one or more anchors is visible to said image capturing device ; and analyzing the image to determine the position of the image capturing device relative to the one or more anchors .
Control method for a power supply system having at least two power sections (L1, L2, L1', L2'), whose power outputs are connected in parallel, wherein each power section (L1, L2, L1', L2') has an output voltage (UOUT, UOUT1, UOUT2) and is actuated by means of a dedicated control unit (STR1, STR2) and wherein at least one first current limit (S1) is predefined for each control unit (STR1, STR2), the control unit (STR1, STR2) actuating the associated power section (L1, L2, L1', L2') in a normal mode up to said first current limit (S1), characterised in that a first depression value (UA, UA') of the output voltage (UOUT, UOUT1, UOUT2) when the first current limit (S1) is reached is predefined for each control unit (STR1, STR2), that the respective control unit (STR1, STR2) regulates the output voltage (UOUT, UOUT1, UOUT2) of the associated power section (L1, L2, L1', L2') to the first depression value (UA, UA') when the first current limit (S1) is reached, that furthermore a second current limit (S2) is predefined for each control unit (STR1, STR2), said second current limit (S2) being higher than the first current limit (S1), that a second depression value (UB, UAB, UB') for the output voltage (UOUT, UOUT1, UOUT2) when the second current limit (S2) is reached is predefined for the respective control unit (STR1, STR2), that the respective control unit (STR1, STR2) regulates the output voltage (UOUT, UOUT1, UOUT2) of the associated power section (L1, L2, L1', L2') to the second depression value (UB, UAB, UB') when said second current limit (S2) is reached and that at least one power section (L1, L2, L1', L2') is operated in an overload mode if every other power section (L1, L2, L1', L2') is regulated to the first depression value (UA, UA').
A GUCY2C agonist for use in the treatment of Parkinson's disease in an individual, further comprising administering a PDE inhibitor to the individual.
A recliner mechanism with a pawl , a disc and with a unitary cam member for a vehicle seat assembly comprising: a cam portion integrally formed with an extended portion and wherein said extended portion - extends along an axis and has - an outer pivot surface including a cam spring mounting area that is not substantially circular and - a base plate extension area that is substantially circular and wherein said extended portion includes an inner surface configured to engage a drive shaft and prevent rotation relative to the drive shaft and wherein said cam portion extends outwardly from said base plate extension area of said extended portion and includes two plate-shaped outer cam surfaces radially extended into opposite directions from said base plate extension area and wherein each plate-shaped outer cam surface comes into engagement with the pawl through the disc having a flat portion to engage a flat portion on the pawl . a cam portion integrally formed with an extended portion and wherein said extended portion - extends along an axis and has - an outer pivot surface including a cam spring mounting area that is not substantially circular and - a base plate extension area that is substantially circular and - extends along an axis and has - an outer pivot surface including a cam spring mounting area that is not substantially circular and - a base plate extension area that is substantially circular and - an outer pivot surface including a cam spring mounting area that is not substantially circular and - a base plate extension area that is substantially circular and wherein said extended portion includes an inner surface configured to engage a drive shaft and prevent rotation relative to the drive shaft and wherein said cam portion extends outwardly from said base plate extension area of said extended portion and includes two plate-shaped outer cam surfaces radially extended into opposite directions from said base plate extension area and wherein each plate-shaped outer cam surface comes into engagement with the pawl through the disc having a flat portion to engage a flat portion on the pawl .
A circumferential angle adjustment device for a generatrix of a cylindrical lens , comprising: a lens holding tube which holds the cylindrical lens , the lens holding tube having an optical axis; an outer peripheral tube in which the lens holding tube is arranged at an inner peripheral side of the outer peripheral tube, the outer peripheral tube having a long hole , the long hole extending parallel to the optical axis; and a cam member which is provided at an outer peripheral side of the lens holding tube and has a cam surface eccentric with respect to an axis intersecting with the optical axis, the cam surface slidably engaging with an inner surface of the long hole so that the cam member moves in a direction parallel to the optical axis; wherein the lens holding tube is rotatably supported with respect to the outer peripheral tube in a circumferential direction of the optical axis. a lens holding tube which holds the cylindrical lens , the lens holding tube having an optical axis; an outer peripheral tube in which the lens holding tube is arranged at an inner peripheral side of the outer peripheral tube, the outer peripheral tube having a long hole , the long hole extending parallel to the optical axis; and a cam member which is provided at an outer peripheral side of the lens holding tube and has a cam surface eccentric with respect to an axis intersecting with the optical axis, the cam surface slidably engaging with an inner surface of the long hole so that the cam member moves in a direction parallel to the optical axis; wherein the lens holding tube is rotatably supported with respect to the outer peripheral tube in a circumferential direction of the optical axis.
A method for manufacturing a part including a formation of successive solid metallic layers (20 1 ...20 n ), superimposed on one another, each layer describing a pattern defined from a digital model (M), each layer being formed by the deposition of a metal , called filler metal, the filler metal being subjected to an energy input so as to melt and constitute, when solidifying, said layer, wherein the filler metal is in the form of a powder , whose exposure to an energy beam results in melting followed by solidification so as to form a solid layer (20 1 ...20 n ), the method being characterized in that the filler metal is an aluminum alloy comprising the following alloy elements: - Ni, according to a weight fraction from 1 to 8 %, preferably from 2 to 7 %; - Zr, according to a weight fraction from 0.3 à 3 %, preferably from 0.5 to 2.5 %; - optionally V, according to a weight fraction from 0 à 4 %, preferably from 0.5 to 2 %; - optionally Cu, according to a weight fraction from 0 à 7 %, preferably from 2 to 7 %; - optionally Fe, according to a weight fraction from 0 à 3 %, preferably from 0.5 to 3 %; - optionally, at least one element selected from: Si, Hf, Cr, Ti, Sc, Mg, W, Nb, Ta, Y, Yb, Nd, Ce, Co, La, Mo and/or a mischmetal, according to a weight fraction lower than or equal to 5 % for each one, and lower than or equal to 15 % all in all; - optionally, at least one element selected from: Sr, Ba, Sb, Bi, Ca, P, B, In and/or Sn, according to a weight fraction lower than or equal to 1 % for each one, and lower than or equal to 2 % all in all; - optionally, at least one element selected from: Ag according to a weight fraction from 0.06 to 1 %, Li according to a weight fraction from 0.06 to 1 %, and/or Zn according to a weight fraction from 0.06 to 6 %; - optionaly impurities according to a weight fraction lower than 0.05 % for each one and lower than 0.15 % all in all; - the remainder consisting of aluminum. - Ni, according to a weight fraction from 1 to 8 %, preferably from 2 to 7 %; - Zr, according to a weight fraction from 0.3 à 3 %, preferably from 0.5 to 2.5 %; - optionally V, according to a weight fraction from 0 à 4 %, preferably from 0.5 to 2 %; - optionally Cu, according to a weight fraction from 0 à 7 %, preferably from 2 to 7 %; - optionally Fe, according to a weight fraction from 0 à 3 %, preferably from 0.5 to 3 %; - optionally, at least one element selected from: Si, Hf, Cr, Ti, Sc, Mg, W, Nb, Ta, Y, Yb, Nd, Ce, Co, La, Mo and/or a mischmetal, according to a weight fraction lower than or equal to 5 % for each one, and lower than or equal to 15 % all in all; - optionally, at least one element selected from: Sr, Ba, Sb, Bi, Ca, P, B, In and/or Sn, according to a weight fraction lower than or equal to 1 % for each one, and lower than or equal to 2 % all in all; - optionally, at least one element selected from: Ag according to a weight fraction from 0.06 to 1 %, Li according to a weight fraction from 0.06 to 1 %, and/or Zn according to a weight fraction from 0.06 to 6 %; - optionaly impurities according to a weight fraction lower than 0.05 % for each one and lower than 0.15 % all in all; - the remainder consisting of aluminum.
Footwear , comprising: an outsole comprising multiple interlocking outsole portions (30, 40; 210a-210j; 210, 220, 230, 240), wherein the outsole has a length that extends in a longitudinal dimension, a width that extends in a transverse dimension, and a depth that extends in a vertical dimension, wherein the length is greater than the width and the width is greater than the depth, wherein the multiple interlocking outsole portions include interlocking teeth, wherein the interlocking teeth are arranged to enable expansion of the outsole in the longitudinal and transverse dimensions, but not the vertical dimension; wherein the teeth interlocking a first outsole portion of the multiple outsole portions and a second outsole portion of the multiple outsole portions are such that they enable relative longitudinal and transverse movement of those outsole portions; and means for urging the first outsole portion away from the second outsole portion, thereby expanding the outsole. an outsole comprising multiple interlocking outsole portions (30, 40; 210a-210j; 210, 220, 230, 240), wherein the outsole has a length that extends in a longitudinal dimension, a width that extends in a transverse dimension, and a depth that extends in a vertical dimension, wherein the length is greater than the width and the width is greater than the depth, wherein the multiple interlocking outsole portions include interlocking teeth, wherein the interlocking teeth are arranged to enable expansion of the outsole in the longitudinal and transverse dimensions, but not the vertical dimension; wherein the teeth interlocking a first outsole portion of the multiple outsole portions and a second outsole portion of the multiple outsole portions are such that they enable relative longitudinal and transverse movement of those outsole portions; and means for urging the first outsole portion away from the second outsole portion, thereby expanding the outsole.
A method comprising: adhering or depositing a bending substrate on a first surface of an imaging sensor chip , wherein the first surface of the imaging sensor chip includes one or more light sensors to generate electrical signals in response to receiving light onto the first surface; characterized in that stiffness of the bending substrate varies over different portions of the imaging sensor chip due to one or both of notches or grooves in the bending substrate, wherein the stiffness of the bending substrate is based on a thickness of the bending substrate, and wherein the thickness of the bending substrate is different at different portions of the bending substrate, and wherein the one or both of the notches or the grooves are distributed concentrically about a center region of the bending substrate; and applying forces to the bending substrate so as to bend the bending substrate and to resultantly impart bending forces , which are based at least in part on the stiffness of the bending substrate, on the image sensor chip to produce a curved imaging sensor chip . adhering or depositing a bending substrate on a first surface of an imaging sensor chip , wherein the first surface of the imaging sensor chip includes one or more light sensors to generate electrical signals in response to receiving light onto the first surface; characterized in that stiffness of the bending substrate varies over different portions of the imaging sensor chip due to one or both of notches or grooves in the bending substrate, wherein the stiffness of the bending substrate is based on a thickness of the bending substrate, and wherein the thickness of the bending substrate is different at different portions of the bending substrate, and wherein the one or both of the notches or the grooves are distributed concentrically about a center region of the bending substrate; and applying forces to the bending substrate so as to bend the bending substrate and to resultantly impart bending forces , which are based at least in part on the stiffness of the bending substrate, on the image sensor chip to produce a curved imaging sensor chip .