mhurhangee/patent-ind-claim-en huggingface dataset:
A height adjustment mechanism for driver's seats in vehicles, characterized by • a shaft , that is positioned in a manner to pass inside a rotation gear mechanism and a mounting bracket ; that transmits the drive provided by the user to a second gear pawl push and that keeps the whole system together, • first and second gear pawls that are placed on the rotation gear mechanism , perform the locking motion in relation to the rotation gear mechanism and enable the stage adjustment achieved depending on this motion, • and a first gear pawl push that acts as a bearing for a second gear pawl push , which actuates these elements, and • first and second outer gears that are placed inside the rotation gear mechanism and that adjust the stage of height by means of the stage threads placed on them. • a shaft , that is positioned in a manner to pass inside a rotation gear mechanism and a mounting bracket ; that transmits the drive provided by the user to a second gear pawl push and that keeps the whole system together, • first and second gear pawls that are placed on the rotation gear mechanism , perform the locking motion in relation to the rotation gear mechanism and enable the stage adjustment achieved depending on this motion, • and a first gear pawl push that acts as a bearing for a second gear pawl push , which actuates these elements, and • first and second outer gears that are placed inside the rotation gear mechanism and that adjust the stage of height by means of the stage threads placed on them.
A thermally insulative liner for packaging, the thermally insulative liner comprising: a base ; a plurality of sidewalls (112, 211-213) extending from the base , the plurality of sidewalls (112, 211-213) defining an opening to an internal volume, the opening being opposite to the base ; and a cover configured to cover the opening; characterized in that , the cover comprises a first segment , a second segment , and a third segment ; a first side of the first segment is hingedly attached to a first sidewall of the plurality of sidewalls (112, 211-213) such that the first segment is rotatable, from a position in which the first segment is parallel to and aligned with the first sidewall , in a first direction relative to the first sidewall ; a first side of the second segment is hingedly attached to a second side of the first segment opposite to the first side of the first segment such that the second segment is rotatable, from a position in which the second segment is parallel to and aligned with the first segment , in the first direction; and a first side of the third segment is hingedly attached to a second side of the second segment opposite to the first side of the second segment such that the third segment is rotatable, from a position in which the third segment is parallel to and aligned with the second segment , in a second direction opposite to the first direction. a base ; a plurality of sidewalls (112, 211-213) extending from the base , the plurality of sidewalls (112, 211-213) defining an opening to an internal volume, the opening being opposite to the base ; and a cover configured to cover the opening; characterized in that , the cover comprises a first segment , a second segment , and a third segment ; a first side of the first segment is hingedly attached to a first sidewall of the plurality of sidewalls (112, 211-213) such that the first segment is rotatable, from a position in which the first segment is parallel to and aligned with the first sidewall , in a first direction relative to the first sidewall ; a first side of the second segment is hingedly attached to a second side of the first segment opposite to the first side of the first segment such that the second segment is rotatable, from a position in which the second segment is parallel to and aligned with the first segment , in the first direction; and a first side of the third segment is hingedly attached to a second side of the second segment opposite to the first side of the second segment such that the third segment is rotatable, from a position in which the third segment is parallel to and aligned with the second segment , in a second direction opposite to the first direction.
A brake fluid pressure control device for a vehicle, the brake fluid pressure control device comprising: a base which includes a brake fluid passage (A1-E1, A2-E2); an electromagnetic valve which opens and closes the brake fluid passage (A1-E1, A2-E2); an electromagnetic coil which drives the electromagnetic valve ; a control board which controls the electromagnetic valve and the electromagnetic coil ; and a housing which stores the electromagnetic valve , the electromagnetic coil , and the control board , wherein the housing includes: a peripheral wall part which includes openings formed on a front side and a rear side, wherein one of the front and rear sides of the peripheral wall part is in contact with the base ; a board storage part which is provided on the other one of the front and rear sides of the peripheral wall part and which stores the control board ; and a connector part , the peripheral wall part has a substantially quadrangular shape in an axial direction of the electromagnetic valve , a storage part which stores the electromagnetic valve and the electromagnetic coil is provided inside the peripheral wall part , the electromagnetic coil includes a yoke part having a flat side surface , the peripheral wall part includes a chamfer part formed by chamfering a corner thereof, the electromagnetic coil is stored in the storage part such that the side surface of the yoke part and the chamfer part formed by chamfering the corner of the peripheral wall part face each other, and a clamp pedestal is provided at a corner of the base which protrudes beyond the chamfer part of the peripheral wall part of the housing . a base which includes a brake fluid passage (A1-E1, A2-E2); an electromagnetic valve which opens and closes the brake fluid passage (A1-E1, A2-E2); an electromagnetic coil which drives the electromagnetic valve ; a control board which controls the electromagnetic valve and the electromagnetic coil ; and a housing which stores the electromagnetic valve , the electromagnetic coil , and the control board , wherein the housing includes: a peripheral wall part which includes openings formed on a front side and a rear side, wherein one of the front and rear sides of the peripheral wall part is in contact with the base ; a board storage part which is provided on the other one of the front and rear sides of the peripheral wall part and which stores the control board ; and a connector part , the peripheral wall part has a substantially quadrangular shape in an axial direction of the electromagnetic valve , a storage part which stores the electromagnetic valve and the electromagnetic coil is provided inside the peripheral wall part , the electromagnetic coil includes a yoke part having a flat side surface , the peripheral wall part includes a chamfer part formed by chamfering a corner thereof, the electromagnetic coil is stored in the storage part such that the side surface of the yoke part and the chamfer part formed by chamfering the corner of the peripheral wall part face each other, and a clamp pedestal is provided at a corner of the base which protrudes beyond the chamfer part of the peripheral wall part of the housing .
A method for producing a chemical through continuous fermentation, the method comprising: (a) culturing a cell in a culture medium in a fermentor to ferment a feedstock to produce a chemical; (b) conducting filtration of the culture medium by using a separation membrane module; (c) separating a permeate containing the chemical from the culture medium while retaining a non-permeated liquid in the fermentor, and (d) supplying a gas from at least one of a lower portion of the separation membrane module and a pipe communicating between the fermentor and the separation membrane module so as to adjust a gas linear velocity in the separation membrane module to 0.15 cm/s to 70 cm/s while supplying the separation membrane module with a culture medium. (a) culturing a cell in a culture medium in a fermentor to ferment a feedstock to produce a chemical; (b) conducting filtration of the culture medium by using a separation membrane module; (c) separating a permeate containing the chemical from the culture medium while retaining a non-permeated liquid in the fermentor, and (d) supplying a gas from at least one of a lower portion of the separation membrane module and a pipe communicating between the fermentor and the separation membrane module so as to adjust a gas linear velocity in the separation membrane module to 0.15 cm/s to 70 cm/s while supplying the separation membrane module with a culture medium.
A method of detecting a condition of an electric machine using a portable diagnostic device , wherein the portable diagnostic device includes one or more sensors for measuring at least one physical parameter associated with the electric machine in at least two axes , characterized by the method comprising: a. measuring the at least one physical parameter associated with the electric machine 110, at a first position , along a first axis and a second axis of the at least two axes , wherein the first axis is at a first angle to an axis of the electric machine and the second axis is at a second angle to the axis of the electric machine , wherein the second angle is distinct from the first angle; b. determining a first ratio of a first measurement of the at least one physical parameter along the first axis and a second measurement of the at least one physical parameter along the second axis at the first position ; c. identifying a spatial distribution from one or more spatial distributions associated with one or more conditions of the electric machine stored on a database , based on the determined first ratio, wherein each spatial distribution from the spatial distributions is associated with one of a normal condition and a plurality of fault conditions, and includes an array of measurements of the one or more physical parameters and corresponding information regarding points of the measurements about the electric machine; and d. identifying the condition of the electric machine based on the identified spatial distribution . a. measuring the at least one physical parameter associated with the electric machine 110, at a first position , along a first axis and a second axis of the at least two axes , wherein the first axis is at a first angle to an axis of the electric machine and the second axis is at a second angle to the axis of the electric machine , wherein the second angle is distinct from the first angle; b. determining a first ratio of a first measurement of the at least one physical parameter along the first axis and a second measurement of the at least one physical parameter along the second axis at the first position ; c. identifying a spatial distribution from one or more spatial distributions associated with one or more conditions of the electric machine stored on a database , based on the determined first ratio, wherein each spatial distribution from the spatial distributions is associated with one of a normal condition and a plurality of fault conditions, and includes an array of measurements of the one or more physical parameters and corresponding information regarding points of the measurements about the electric machine; and d. identifying the condition of the electric machine based on the identified spatial distribution .
Effect pigment comprising a platelet-shaped non-metallic substrate and a copper-containing coating, characterised in that the mean particle size D 50 of the effect pigment is more than 5 μm and the copper content of the effect pigment lies within a range of 3 to 70 % by weight relative to the total weight of the effect pigment, wherein the copper-containing coating is selected from the group consisting of copper , copper(I) oxide, copper(I) hydroxide, copper(II) oxide, copper(II) hydroxide, copper(I) chloride, copper(II) chloride, copper(I) bromide, copper(II) bromide, copper(I) iodide, copper(II) acetate, copper(II) acetate monohydrate, copper(II) hydroxide carbonate, copper(II) citrate, copper(II) nitrate, copper(II) sulphate pentahydrate, copper(I) sulphide, copper(II) sulphide, copper thiocyanate, copper oxychloride, copper(II) tartrate and mixtures thereof, and/or wherein the copper-containing coating is a compound of general empirical formula (I) Cu w M x (OH) y Cl z · nH 2 O (I) where M may stand for zinc, nickel, magnesium, cobalt or iron, w may be selected from a range of 0.5 to 5, x from a range of 0 to 2, y from a range of 1 to 8, z from a range of 1 to 2 and n is a value between 0 and 10, provided that (y + z) = (w · oxidation state of Cu + x · oxidation state of M).
An anti-angiogenic composition for use in the treatment of ocular neovascularization or of a neurodegenerative disease selected from the group consisting of: amyotrophic lateral sclerosis, Alzheimer's disease, stroke, epilepsy, Parkinsons, Huntington's disease, and peripheral neuropathy, the composition comprising: one or more isolated monomeric platinum complexes comprising a platinum center selected from Pt(II) and Pt(IV) and having a formula selected from I, II, III and IV: wherein R 1 and R 2 each is independently selected from substituted or unsubstituted aliphatic or aromatic amines, and wherein when one of R 1 and R 2 is NH 3 , the other of R 1 and R 2 is not NH 3 ; wherein each R 3 is selected from substituted or unsubstituted aliphatic or aromatic diamines; wherein S is independently selected from hydroxide, acetic acid, butyric acid, and alpha-hydroxy acids or charged species thereof coordinated to the platinum metal centre; or pharmaceutically acceptable salts thereof, and wherein the composition is effective in increasing the Pigment Epithelial derived factor (PEDF) gene expression.
A compound of formula (I) or a pharmaceutically acceptable salt or solvate thereof, wherein: R 1 is hydrogen, C 1 -C 8 alkyl, or C 3 -C 7 cycloalkyl; R 2 and R 3 are each independently hydrogen, C 1 -C 8 alkyl, C 3 -C 7 cycloalkyl, or C 3 -C 7 cycloalkylmethyl; R 4 is hydrogen, halogen, C 1 -C 8 alkyl, or C 3 -C 7 cycloalkyl; and R 5 is hydrogen or halogen. R 1 is hydrogen, C 1 -C 8 alkyl, or C 3 -C 7 cycloalkyl; R 2 and R 3 are each independently hydrogen, C 1 -C 8 alkyl, C 3 -C 7 cycloalkyl, or C 3 -C 7 cycloalkylmethyl; R 4 is hydrogen, halogen, C 1 -C 8 alkyl, or C 3 -C 7 cycloalkyl; and R 5 is hydrogen or halogen.
A method for detecting a device-to-device, D2D, signal, comprising: receiving, by a first user equipment, a first message (S110); determining, by the first user equipment according to the first message, a first timing advance for the first user equipment to detect a D2D signal sent by a second user equipment (S120); determining, by the first user equipment, a reference time according to a received reference signal sent by a base station (S130); determining, by the first user equipment according to the first timing advance and the reference time, a first time for detecting the D2D signal (S140); and receiving, by the first user equipment, the D2D signal at the first time (S150); wherein the receiving, by the first user equipment, the first message comprises: receiving, by the first user equipment, the first message sent by the second user equipment, wherein the first message comprises a second timing advance for sending the D2D signal by the second user equipment; and determining, by the first user equipment, the first timing advance according to the second timing advance. receiving, by a first user equipment, a first message (S110); determining, by the first user equipment according to the first message, a first timing advance for the first user equipment to detect a D2D signal sent by a second user equipment (S120); determining, by the first user equipment, a reference time according to a received reference signal sent by a base station (S130); determining, by the first user equipment according to the first timing advance and the reference time, a first time for detecting the D2D signal (S140); and receiving, by the first user equipment, the D2D signal at the first time (S150); wherein the receiving, by the first user equipment, the first message comprises: receiving, by the first user equipment, the first message sent by the second user equipment, wherein the first message comprises a second timing advance for sending the D2D signal by the second user equipment; and determining, by the first user equipment, the first timing advance according to the second timing advance.
A load-bearing structure configured to, during operation of the structure, transfer load (L) from a first part of the structure to a second part of the structure via a load path, the load-bearing structure comprising: a matrix material ; a plurality of longitudinal first reinforcing elements embedded in the matrix material , wherein the long axis of each first reinforcing element is substantially aligned with a first direction; and a plurality of longitudinal second reinforcing elements embedded in the matrix material , wherein the long axis of each second reinforcing element is substantially aligned with a second direction, the second direction being substantially perpendicular to the first direction; wherein the structure has a predefined crack-propagation region configured to control the propagation of a crack in the structure, and wherein the crack-propagation region comprises multiple first reinforcing elements and does not comprise any second reinforcing elements or comprises multiple second reinforcing elements and does not comprise any first reinforcing elements . a matrix material ; a plurality of longitudinal first reinforcing elements embedded in the matrix material , wherein the long axis of each first reinforcing element is substantially aligned with a first direction; and a plurality of longitudinal second reinforcing elements embedded in the matrix material , wherein the long axis of each second reinforcing element is substantially aligned with a second direction, the second direction being substantially perpendicular to the first direction; wherein the structure has a predefined crack-propagation region configured to control the propagation of a crack in the structure, and wherein the crack-propagation region comprises multiple first reinforcing elements and does not comprise any second reinforcing elements or comprises multiple second reinforcing elements and does not comprise any first reinforcing elements .
An electric-vehicle battery system comprising: a high voltage system, HV system, with a plurality of connected rechargeable battery cells ; a low voltage system, LV system, with an operating voltage lower than an operating voltage of the HV system, wherein the LV system is configured to supply a battery system manager, BSM ; a real time clock, RTC , configured for providing a system time to the BSM , wherein the RTC is located in the LV system and is at least temporarily powered by the HV system; and a battery disconnect unit, BDU , comprising BDU relays to switchably open or close an HV line of the HV system and a BDU control unit adapted to control the BDU relays , wherein the BDU is adapted to exchange data with the BSM via a communication interface , wherein the RTC is integrated into the BDU , wherein the BDU includes an RTC voltage supply unit configured for receiving an input voltage from the HV system and providing a supply voltage at an output of the RTC voltage supply unit and wherein the RTC is electrically connected to and configured for drawing power from the output of the RTC voltage supply unit , wherein the BDU control unit is configured to operate the RTC voltage supply unit such that the RTC voltage supply unit is inactive in a first operation state of the battery system and active in a second operation state of the battery system . a high voltage system, HV system, with a plurality of connected rechargeable battery cells ; a low voltage system, LV system, with an operating voltage lower than an operating voltage of the HV system, wherein the LV system is configured to supply a battery system manager, BSM ; a real time clock, RTC , configured for providing a system time to the BSM , wherein the RTC is located in the LV system and is at least temporarily powered by the HV system; and a battery disconnect unit, BDU , comprising BDU relays to switchably open or close an HV line of the HV system and a BDU control unit adapted to control the BDU relays , wherein the BDU is adapted to exchange data with the BSM via a communication interface , wherein the RTC is integrated into the BDU , wherein the BDU includes an RTC voltage supply unit configured for receiving an input voltage from the HV system and providing a supply voltage at an output of the RTC voltage supply unit and wherein the RTC is electrically connected to and configured for drawing power from the output of the RTC voltage supply unit , wherein the BDU control unit is configured to operate the RTC voltage supply unit such that the RTC voltage supply unit is inactive in a first operation state of the battery system and active in a second operation state of the battery system .
A coil for an electrical device, in particular electric machine, for arranging around at least a first core which conducts a magnetic field with a longitudinal coil axis running in the direction of the magnetic field, wherein - the coil has a plurality of turns cast from an electrically conductive coil material, and - the turns and/or the turn portions thereof, dependent on their position in the longitudinal coil direction (L), have cross-sectional areas (A 1 -A 5 ) of different sizes and/or different shapes, wherein - the coil is prepared for use in the electrical device, in particular in the electric machine, - the coil has at least a first end face , - the coil has at least a second end face , - wherein the longitudinal coil direction runs substantially between the first and the second end face , and - the coil has two sides , to be arranged in each case between the first core and a further core , with an inner face pointing towards the first core and an outer face pointing to the in each case further core , characterised in that isolated contact faces in the longitudinal coil direction (L) of adjacent turns - are more greatly inclined or oriented in the direction from the core towards the first end face , the further they are arranged from the second towards the first end face , and/or - are more greatly bent, the further they are arranged from the second towards the first end face . - the coil has a plurality of turns cast from an electrically conductive coil material, and - the turns and/or the turn portions thereof, dependent on their position in the longitudinal coil direction (L), have cross-sectional areas (A 1 -A 5 ) of different sizes and/or different shapes, wherein - the coil is prepared for use in the electrical device, in particular in the electric machine, - the coil has at least a first end face , - the coil has at least a second end face , - wherein the longitudinal coil direction runs substantially between the first and the second end face , and - the coil has two sides , to be arranged in each case between the first core and a further core , with an inner face pointing towards the first core and an outer face pointing to the in each case further core , - are more greatly inclined or oriented in the direction from the core towards the first end face , the further they are arranged from the second towards the first end face , and/or - are more greatly bent, the further they are arranged from the second towards the first end face .