mhurhangee/patent-ind-claim-en huggingface dataset:
A cooling system for an electric rotor machine having a stator and a rotor , the cooling system comprising: a passageway positioned in a midsection of the stator and configured to provide a pathway for the flow of cooling medium into at least a portion of the stator ; a first set of stator ducts and a second set of stator ducts positioned in the stator , the first and second sets of stator ducts being in fluid communication with the passageway and adapted for the flow of cooling medium through at least a portion of the stator , the first set of stator ducts extending from the passageway in a first direction, a second set of stator ducts extending from the passageway in a second direction, the second direction being generally opposite to the first direction; an air gap positioned between the stator and the rotor , the passageway configured to deliver cooling medium to a midsection of the air gap , the air gap configured to provide a channel for the flow of cooling medium from the midsection of the air gap to opposing first and second ends of the stator ; and characterized by an outlet positioned at a discharge end of each of the stator ducts and oriented to direct cooling medium flowing out of the outlet radially inward, with respect to a central axis of the stator , to impinge on windings of the stator . a passageway positioned in a midsection of the stator and configured to provide a pathway for the flow of cooling medium into at least a portion of the stator ; a first set of stator ducts and a second set of stator ducts positioned in the stator , the first and second sets of stator ducts being in fluid communication with the passageway and adapted for the flow of cooling medium through at least a portion of the stator , the first set of stator ducts extending from the passageway in a first direction, a second set of stator ducts extending from the passageway in a second direction, the second direction being generally opposite to the first direction; an air gap positioned between the stator and the rotor , the passageway configured to deliver cooling medium to a midsection of the air gap , the air gap configured to provide a channel for the flow of cooling medium from the midsection of the air gap to opposing first and second ends of the stator ; and characterized by an outlet positioned at a discharge end of each of the stator ducts and oriented to direct cooling medium flowing out of the outlet radially inward, with respect to a central axis of the stator , to impinge on windings of the stator .
A latch apparatus , comprising: a case which is mounted on a mount member and in which an entrance groove which a striker (S) enters is formed; and a latch , which is accommodated in the case so as to be rotationally movable, and which is configured to be brought into engagement with the striker (S) which enters the entrance groove , characterized in that the latch apparatus comprises a fastening member configured to fasten the case to the mount member such that the case is moveable relative to the striker (S), the fastening member being provided within a range defined by projecting an area (A) on the case, the area (A) having a radius centering at the striker (S) being in engagement with the latch and extending to an outermost position of the latch being in engagement with the striker (S). a case which is mounted on a mount member and in which an entrance groove which a striker (S) enters is formed; and a latch , which is accommodated in the case so as to be rotationally movable, and which is configured to be brought into engagement with the striker (S) which enters the entrance groove , characterized in that the latch apparatus comprises a fastening member configured to fasten the case to the mount member such that the case is moveable relative to the striker (S), the fastening member being provided within a range defined by projecting an area (A) on the case, the area (A) having a radius centering at the striker (S) being in engagement with the latch and extending to an outermost position of the latch being in engagement with the striker (S).
A noninvasive method for diagnosing dandruff condition in a subject comprising: detecting a level of a biomarker in an epithelial cell sample or skin cell sample obtained from the subject, wherein the biomarker is selected from the group consisting of oxidized lipids; diagnosing the subject as having oxidative stress and/or oxidative damage based on the level of a detected biomarker, wherein there is a change in biomarker level when compared to a baseline level of biomarker; and thus diagnosing dandruff condition. detecting a level of a biomarker in an epithelial cell sample or skin cell sample obtained from the subject, wherein the biomarker is selected from the group consisting of oxidized lipids; diagnosing the subject as having oxidative stress and/or oxidative damage based on the level of a detected biomarker, wherein there is a change in biomarker level when compared to a baseline level of biomarker; and thus diagnosing dandruff condition.
A WC fitting (1-3) for mounting on a WC body having a WC bowl, which WC fitting (1-3) comprises: a part mountable on the WC body and being pivotable thereon upwards and downwards, a mounting part serving for mounting the pivotable part on the WC body and holding the pivotable part in a pivotable manner and a rotary damper for damping a pivoting movement of the pivotable part , wherein the pivotable part and the mounting part are connected via a pivoting articulation and wherein in a part of the WC fitting (1-3) encompassing a pivoting axis of the pivoting articulation, a rotary stop for limiting the upwards pivoting movement of the pivotable part is provided, namely between a part pivoted with the pivotable part and a part fixed relative to the mounting part with regard to the pivoting movement, characterised in that the rotary damper is engaged in one of the two parts as a sleeve . a part mountable on the WC body and being pivotable thereon upwards and downwards, a mounting part serving for mounting the pivotable part on the WC body and holding the pivotable part in a pivotable manner and a rotary damper for damping a pivoting movement of the pivotable part , wherein the pivotable part and the mounting part are connected via a pivoting articulation and wherein in a part of the WC fitting (1-3) encompassing a pivoting axis of the pivoting articulation, a rotary stop for limiting the upwards pivoting movement of the pivotable part is provided, namely between a part pivoted with the pivotable part and a part fixed relative to the mounting part with regard to the pivoting movement, characterised in that the rotary damper is engaged in one of the two parts as a sleeve .
Apparatus for determining and/or monitoring at least a predefined level of a liquid in a vessel with a sensor unit , comprising at least one unit that is capable of vibrating mechanically and can be arranged at the height of the predefined level, a transmission unit , which uses an electrical transmission signal (S) to excite the unit that is capable of vibrating to produce mechanical vibrations, and a reception unit , which is mechanically and electrically coupled to the transmission unit , and which converts the vibrations of the unit that is capable of vibrating into an electrical reception signal (E), and with an electronics unit , said unit comprising at least an evaluation unit , which uses the electrical reception signal (E) to determine whether the unit that is capable of vibrating is covered or not by a product, and a regulation unit , which regulates a phase difference between the electrical transmission signal (S) and the electrical reception signal (E) to a certain value at which the unit that is capable of vibrating produces vibrations at a resonance frequency, and which forms a resonant circuit with the transmission unit , the reception unit and the unit that is capable of vibrating, wherein the electronics unit has a compensation path with a compensation unit , which is used to compensate for additional signal components in the reception signal (E), wherein the additional signal components in the reception signal (E) result from the mechanical and/or electrical coupling between the transmission unit and the reception unit , wherein the compensation unit at least temporarily generates a compensation signal (K) from the transmission signal (S) and supplies said compensation signal to the reception signal (E), wherein the compensation unit generates the compensation signal (K) in such a way that the compensation signal (K) is opposed to the additional signal components in the reception signal (E), characterized in that the compensation unit has at least an adjustable damping element for the dynamic compensation of the additional signal components in the reception signal (E), in that the compensation unit is controlled by a microcontroller , which is designed to initiate and terminate the compensation, and to control the setting for the level of the compensation signal (K), in that - for the purpose of generating the compensation signal (K) - the compensation unit modifies the transmission signal (S) in the compensation path depending on a current vibration frequency of the resonant circuit, and in that the compensation unit is designed to generate a compensation signal (K) at least when the current vibration frequency is outside a range, said range being delimited - with certain tolerances - by the vibration frequency of a covered unit that is capable of vibrating and the vibration frequency of an uncovered unit that is capable of vibrating.
A battery pack, comprising: a first battery cell and a second battery cell; a bus bar that electrically connects the first battery cell and the second battery cell; a connector that is formed on the bus bar and includes first and second connection parts; and first and second sensing terminals connected to the first and second connection parts, respectively, the first and second sensing terminals being configured to measure a temperature and a voltage of the battery cell, respectively; wherein the first and second sensing terminals are slidable relative to the first and second connection parts, respectively, and the first connection part is configured to press the first sensing terminal against the bus bar. a first battery cell and a second battery cell; a bus bar that electrically connects the first battery cell and the second battery cell; a connector that is formed on the bus bar and includes first and second connection parts; and first and second sensing terminals connected to the first and second connection parts, respectively, the first and second sensing terminals being configured to measure a temperature and a voltage of the battery cell, respectively; wherein the first and second sensing terminals are slidable relative to the first and second connection parts, respectively, and the first connection part is configured to press the first sensing terminal against the bus bar.
Insulating web (5, 5', 5", 5"') for connecting two profile elements (2, 2', 2", 3, 3', 3") of a thermally insulated profile (1, 1', 1"), preferably of a window, a door, a gate and/or a facade, having at least two terminal connection strips for connecting the insulating web (5, 5', 5") to the profile elements (2, 2', 2", 3, 3', 3"), wherein in addition at least one hollow chamber profile portion (11, 11', 11") and at least one solid profile rod portion are provided, wherein the at least one hollow chamber profile portion (11, 11', 11") is connected to a connection strip , wherein the hollow chamber profile portion (11, 11', 11") is connected to the profile rod portion and wherein the connection strips are connected to each other without alternative by means of the profile rod portion , wherein the at least one hollow chamber profile portion (11, 11', 11") tapers adjacent to the profile rod portion and in the direction of the profile rod portion at an angle of from 35° to 55°, characterised in that the hollow chamber profile portion (11, 11', 11") runs out at the angle of from 35° to 55° and thereby gradually merges into the profile rod portion .
An anti-N3pGlu Aβ antibody comprising a Light Chain Variable Region (LCVR) and a Heavy Chain Variable Region (HCVR), wherein LCDRI is KSX1X2SLLYSRX3KTYLN (SEQ ID NO: 51), LCDR2 is AVSKLX4S (SEQ ID NO:52), LCDR3 is VQGTHYPFT (SEQ ID NO: 5) and HCDRI is GYX5FTX6YYIN (SEQ ID NO: 53), HCDR2 is WINPGSGNTKYNEKFKG (SEQ ID NO: 8), and HCDR3 is EGX7TVY (SEQ ID NO: 54), wherein XI is S or T; X2 is Q or R, X3 is G or S, X4 is D or G, X5 is D or T, X6 is R or D, and X7 is I, T, E, or V, for use in the prevention of Alzheimer's disease.
Compacting machine for compacting a fabric , comprising at least a first compacting module and at least a second compacting module , disposed in direct connection and directly downstream of said first compacting module in a direction of feed (D) of the fabric , characterized in that said first compacting module is suitable to carry out a mechanical-type compacting treatment and said second compacting module is suitable to carry out a felt-type compacting treatment, said first mechanical compacting module comprising an introduction cylinder , or feed cylinder, a rubber-coated cylinder or retarding cylinder, and a shaped blade to introduce the fabric between the two cylinders , said second felt-type compacting module comprising a heated cylinder , around which the fabric to be compacted winds, a felt strip that presses the fabric against the heated cylinder , and an introduction element, or lead-in element , suitable to introduce the fabric between the surface of the heated cylinder and said felt strip .
Loading fork for attachment to an excavator arm , comprising: a mast in the shape of an inverted capital L with a vertical bar and an angled transverse bar ; a fork carrier , which is arranged in the region of the free end of the vertical bar and comprises a fork back as well as two parallel fork tines , wherein the fork tines together with the fork back delimit a load receptacle and extend substantially in the same direction as the transverse bar ; and a head part , which is arranged in the region of the free end of the transverse bar and can be attached to the excavator arm . a mast in the shape of an inverted capital L with a vertical bar and an angled transverse bar ; a fork carrier , which is arranged in the region of the free end of the vertical bar and comprises a fork back as well as two parallel fork tines , wherein the fork tines together with the fork back delimit a load receptacle and extend substantially in the same direction as the transverse bar ; and a head part , which is arranged in the region of the free end of the transverse bar and can be attached to the excavator arm .
A chromium-free metal surface treatment composition, comprising: 10-30 parts by weight of a silane-based compound, 0.5-6 parts by weight of an organic acid, 0.1-3 parts by weight of a vanadium compound, 0.1-3 parts by weight of a magnesium compound, 0.5-3 parts by weight of a wax and a balance of a solvent, wherein the wax is a polypropylene wax, and wherein a weight average molecular weight of the wax is 2,000-10,000. 10-30 parts by weight of a silane-based compound, 0.5-6 parts by weight of an organic acid, 0.1-3 parts by weight of a vanadium compound, 0.1-3 parts by weight of a magnesium compound, 0.5-3 parts by weight of a wax and a balance of a solvent, wherein the wax is a polypropylene wax, and wherein a weight average molecular weight of the wax is 2,000-10,000.
An adaptable lattice structure for an Unmanned Aerial System, UAS, comprising: a plurality of lattice voxels , wherein each lattice voxel comprises: a plurality of same shape elements ; wherein each same shape element comprises a plurality of beams that make up said same shape elements and a plurality of connector elements , wherein the plurality of connector elements is configured to temporarily couple a first same shape element to at least a second same shape element ; wherein the first same shape element and/or the second same shape element comprises a kink in at least one beam of the plurality of beams; wherein the plurality of same shape elements is configured to be temporarily coupled so as to form a three dimensional lattice voxel ; wherein at least one of the connector elements on a first lattice voxel is configured to temporarily couple the first lattice voxel to a second lattice voxel after the formation of the first lattice voxel and the second lattice voxel ; and wherein each of the plurality of same shape elements and/or the plurality of lattice voxels are 3D-printed. a plurality of same shape elements ; wherein each same shape element comprises a plurality of beams that make up said same shape elements and a plurality of connector elements , wherein the plurality of connector elements is configured to temporarily couple a first same shape element to at least a second same shape element ; wherein the first same shape element and/or the second same shape element comprises a kink in at least one beam of the plurality of beams; wherein the plurality of same shape elements is configured to be temporarily coupled so as to form a three dimensional lattice voxel ; wherein at least one of the connector elements on a first lattice voxel is configured to temporarily couple the first lattice voxel to a second lattice voxel after the formation of the first lattice voxel and the second lattice voxel ; and wherein each of the plurality of same shape elements and/or the plurality of lattice voxels are 3D-printed.
A data obtaining method, comprising the steps of: obtaining (S1002) a first facial recognition frame, wherein the first facial recognition frame is the first frame in multiple facial recognition frames in time of flight, TOF, data, and the TOF data is TOF data acquired by a TOF camera as triggered by a task request sent by an application; and the first facial recognition frame acquired by the TOF camera is stored into a trusted execution environment, TEE, via a kernel layer and comprises projection off data and infrared data, and the projection off data is TOF data acquired by the TOF camera with a TOF light source being off; determining (S1003), in the TEE, whether a data block satisfying a preset condition is present in the infrared data, wherein the preset condition comprises that the number of data points in the data block with brightness values greater than a first threshold is greater than a second threshold; obtaining (S1004), in the TEE, if the data block satisfying the preset condition is present in the infrared data, a processed first frame of TOF data based on a difference between the infrared data and the projection off data, wherein the projection off data in the first frame of TOF data is subtracted from the infrared data in the first frame of TOF data to obtain the processed first frame of TOF data; and generating, in the TEE, a first frame of TOF image by using the processed first frame of TOF data. obtaining (S1002) a first facial recognition frame, wherein the first facial recognition frame is the first frame in multiple facial recognition frames in time of flight, TOF, data, and the TOF data is TOF data acquired by a TOF camera as triggered by a task request sent by an application; and the first facial recognition frame acquired by the TOF camera is stored into a trusted execution environment, TEE, via a kernel layer and comprises projection off data and infrared data, and the projection off data is TOF data acquired by the TOF camera with a TOF light source being off; determining (S1003), in the TEE, whether a data block satisfying a preset condition is present in the infrared data, wherein the preset condition comprises that the number of data points in the data block with brightness values greater than a first threshold is greater than a second threshold; obtaining (S1004), in the TEE, if the data block satisfying the preset condition is present in the infrared data, a processed first frame of TOF data based on a difference between the infrared data and the projection off data, wherein the projection off data in the first frame of TOF data is subtracted from the infrared data in the first frame of TOF data to obtain the processed first frame of TOF data; and generating, in the TEE, a first frame of TOF image by using the processed first frame of TOF data.
An electric machine comprising: • a stator having a stator body with a stator winding configured to electrically create a plurality of stator poles disposed around the inner periphery of the stator body, • a rotor rotatably disposed within said stator and having a rotor body , • a housing enclosing at least said rotor , the stator body and the stator winding and comprising an end shield arranged at each axial end of the machine, said housing having at least one air inlet at a first said axial end of the machine and at least one peripheral air outlet at the other, second axial end of the machine, said housing further comprising a stator frame surrounding the stator body and the rotor, • a fan fixed within the housing at said second axial end to rotate with the rotor body so as to create a flow of air through said housing from said air inlet to said air outlet for cooling parts of the electric machine, and • an arrangement configured to form an air outlet channel configured to conduct air radially leaving said fan to said air outlet , said arrangement comprising, in a first channel portion , first upstreams walls configured to direct air leaving said fan axially back in the direction of said first axial end and, in a second channel portion following upon the first channel portion , second downstreams walls configured to redirect the air flow from the fan to assume a major radial component of said redirected air flow, wherein said end shield at the second axial end of the housing has peripheral portions pointing in the direction of said first axial end and providing said first walls of said first channel portion , characterized in that walls of said first channel portion opposed to said first walls are formed by said stator frame . • a stator having a stator body with a stator winding configured to electrically create a plurality of stator poles disposed around the inner periphery of the stator body, • a rotor rotatably disposed within said stator and having a rotor body , • a housing enclosing at least said rotor , the stator body and the stator winding and comprising an end shield arranged at each axial end of the machine, said housing having at least one air inlet at a first said axial end of the machine and at least one peripheral air outlet at the other, second axial end of the machine, said housing further comprising a stator frame surrounding the stator body and the rotor, • a fan fixed within the housing at said second axial end to rotate with the rotor body so as to create a flow of air through said housing from said air inlet to said air outlet for cooling parts of the electric machine, and • an arrangement configured to form an air outlet channel configured to conduct air radially leaving said fan to said air outlet ,