mhurhangee/ep-ind-claims huggingface dataset:
A sound source detecting system that is adapted to detect a predetermined sound source on the basis of information about sounds collected by a plurality of sound collectors (13, 14, 15, 16), comprising: a noise extracting unit that is adapted to extract a noise, emitted from a sound source other than the predetermined sound source, from signals of the sounds collected by the plurality of sound collectors; a noise suppressing unit that is adapted to suppress a signal component of the noise extracted by the noise extracting unit from the signals of the sounds collected by the plurality of sound collectors (13, 14, 15, 16); and a sound source detecting unit that is adapted to detect a location of the predetermined sound source using information about the sounds having the signals of which the signal component of the noise is suppressed by the noise suppressing unit, wherein the sound source detecting system is mounted on a vehicle, the vehicle includes a vehicle state detecting unit that is adapted to detect a vehicle state of the vehicle, wherein the vehicle state is a vehicle speed, and extracting a noise by the noise extracting unit and suppressing a signal component of the noise by the noise suppressing unit are performed on the basis of the vehicle state detected by the vehicle state detecting unit.. a noise extracting unit that is adapted to extract a noise, emitted from a sound source other than the predetermined sound source, from signals of the sounds collected by the plurality of sound collectors; a noise suppressing unit that is adapted to suppress a signal component of the noise extracted by the noise extracting unit from the signals of the sounds collected by the plurality of sound collectors (13, 14, 15, 16); and a sound source detecting unit that is adapted to detect a location of the predetermined sound source using information about the sounds having the signals of which the signal component of the noise is suppressed by the noise suppressing unit, wherein the sound source detecting system is mounted on a vehicle, the vehicle includes a vehicle state detecting unit that is adapted to detect a vehicle state of the vehicle, wherein the vehicle state is a vehicle speed, and extracting a noise by the noise extracting unit and suppressing a signal component of the noise by the noise suppressing unit are performed on the basis of the vehicle state detected by the vehicle state detecting unit..
A coated food composition comprising: a food product and a coating, wherein the coating consists of a mixture of erythritol and at least one bulking agent, wherein the erythritol comprises between 20% to 90% by weight of the coating, and wherein the bulking agent comprises between 10% to 80% by weight of the coating, wherein the bulking agent is a maltodextrin, and wherein the coating at least partially covers the food composition, and wherein the food product comprises a cereal product, a bakery product or a snack product and wherein the snack product is candied fruits, nougat crumbs, expanded snacks, dates, dried fruits or nuts.
A compound of Formula V: wherein: A is cyclohex-1-enyl; n is 0 or 1; R 10 is C 1-4 alkyl; R 2 is C 1-15 alkyl; wherein said alkyl is optionally substituted with heteroaryl comprising 1 to 15 carbon atoms and 1 to 4 heteroatoms selected from oxygen, nitrogen and sulfur within at least one ring; or a pharmaceutically acceptable salt, ester, stereoisomer, mixture of stereoisomers or tautomer thereof. A is cyclohex-1-enyl; n is 0 or 1; R 10 is C 1-4 alkyl; R 2 is C 1-15 alkyl; wherein said alkyl is optionally substituted with heteroaryl comprising 1 to 15 carbon atoms and 1 to 4 heteroatoms selected from oxygen, nitrogen and sulfur within at least one ring;
Process of producing the compound of formula (Ia) wherein the compound of formula is reacted with a compound of formula wherein R 1 is H or Si(CH 3) 3, in the presence of a catalyst, being an Au complex.
Aqueous impregnation cement, in particular for the manufacture of friction material, comprising: - a crosslinked rubber powder and - a non-crosslinked rubber latex of nitrile-butadiene or styrene-butadiene type. - a crosslinked rubber powder and - a non-crosslinked rubber latex of nitrile-butadiene or styrene-butadiene type.
A pharmaceutical composition for use in treating osteoarthritis or cartilage degenerative disease comprising a compound of Formula I: wherein, X is Y is Z is Y 1-3 are C, Z 1 is O, Z 2 is N or CH, Z 3 is N or C, Z 4 is C, Z 5 is N or CR 14; Z 6 is N or CR 13; Z 7 is N or CR 12; Z 8 is N or CR 11; Z 9 is N or CR 10; v is 0 or 1, R 3 is H and R 3 -R 7 are independently selected from H, D, (C 1 -C 3) alkyl, (C 1 -C 3) alkenyl, halo, cyano, hydroxyl, nitro, thiol or amino; R 8 and R 9 are independently selected from H, D, (C 1 - C 3) alkyl, (C 1 -C 3) alkenyl, halo, cyano, hydroxyl, nitro, thiol, and amino; and R 10 -R 14 are independently selected from H, D, (C 1 -C 3) alkyl, (C 1 -C 3) alkenyl, halo, cyano, hydroxyl, nitro, thiol, amino, OC(R 15) 3, OCH(R 15) 2, OCH 2 (R 15), wherein n is an integer from 1 to 5; and R 15 is independently H, halo, or a (C 1 -C 3)alkyl. X is Y is Z is Y 1-3 are C, Z 1 is O, Z 2 is N or CH, Z 3 is N or C, Z 4 is C, Z 5 is N or CR 14; Z 6 is N or CR 13; Z 7 is N or CR 12; Z 8 is N or CR 11; Z 9 is N or CR 10; v is 0 or 1, R 3 is H and R 3 -R 7 are independently selected from H, D, (C 1 -C 3) alkyl, (C 1 -C 3) alkenyl, halo, cyano, hydroxyl, nitro, thiol or amino; R 8 and R 9 are independently selected from H, D, (C 1 - C 3) alkyl, (C 1 -C 3) alkenyl, halo, cyano, hydroxyl, nitro, thiol, and amino; and R 10 -R 14 are independently selected from H, D, (C 1 -C 3) alkyl, (C 1 -C 3) alkenyl, halo, cyano, hydroxyl, nitro, thiol, amino, OC(R 15) 3, OCH(R 15) 2, OCH 2 (R 15), wherein n is an integer from 1 to 5; and R 15 is independently H, halo, or a (C 1 -C 3)alkyl.
An isolated human Nkx2.1 positive, Sox2 positive proximal airway multipotent progenitor cell, wherein the cell is proliferative and differentiates into an airway basal stem cell, a ciliated cell, a Clara cell, a neuroendocrine cell, or a squamous epithelial cell under chosen differentiation conditions.
A three-dimensional flash memory device, comprising: a substrate (10, 200) having a planar surface; a plurality of active columns of semiconducting material disposed above said substrate (10, 200), each of said plurality of active columns extending along a first direction orthogonal to said planar surface of said substrate (10, 200), a stack of word lines wrapping around said plurality of active columns, wherein said plurality of active columns is arranged in a two-dimensional array, and wherein each of said plurality of active columns comprises multiple local bit lines (354a-354d) and multiple local source lines (355a-355d) at its periphery, the multiple local bit lines (354a - 354d) and the multiple local source lines (355a - 355d) extending in said first direction; wherein each of said plurality of active columns further comprises multiple channel regions (356-1~ 356-8) on each respective word line level, wherein a channel region (356-1 ∼ 356-8): of the multiple channel regions on each respective word line level is disposed between every pair consisting of a local bit line (354a-354d) and an adjacent local source line (355a - 355d) and a charge storage element, disposed between said word line stack and each of said plurality of active columns. a substrate (10, 200) having a planar surface; a plurality of active columns of semiconducting material disposed above said substrate (10, 200), wherein said plurality of active columns is arranged in a two-dimensional array, and wherein each of said plurality of active columns comprises multiple local bit lines (354a-354d) and multiple local source lines (355a-355d) at its periphery, the multiple local bit lines (354a - 354d) and the multiple local source lines (355a - 355d) extending in said first direction; wherein each of said plurality of active columns further comprises multiple channel regions (356-1~ 356-8) on each respective word line level, wherein a channel region (356-1 ∼ 356-8): of the multiple channel regions on each respective word line level is disposed between every pair consisting of a local bit line (354a-354d) and an adjacent local source line (355a - 355d) and a charge storage element, disposed between said word line stack and each of said plurality of active columns.
A method for controlling the air conditioning of a vehicle seat, in which a value of an air-conditioning parameter is set by means of a control element, which is movable from a zero position in two opposite directions (A, B), wherein the air-conditioning parameter controls the distribution of an air-conditioning function in separate areas along a first direction characterized by the geometry of the vehicle seat, wherein the separate areas comprise at least a first and a second area, characterized in that in the zero position of the control element a uniform distribution of the air-conditioning function in the areas is generated, when the control element in moved in an of the two opposite directions (A, B) the value of the air-conditioning parameter for at least one area of the first and second area remains constant and for at least the other of the first and second area is changed.
A memory controller component, comprising an interface to couple the memory controller to an address bus and to a first data bus, wherein the first data bus and the address bus are separate buses; means to convey a first timing signal, from the memory controller component to a first memory component, wherein the first memory component receives the first timing signal to sample data from the first data bus, characterised in that the memory controller adjusts a drive point of the first timing signal based, at least in part, on a time required for an address signal to propagate on the address bus from the memory controller component to the first memory component minus a time required for first data to propagate on the first data bus from the memory controller to the first memory component (t PD0 -t PD2), and wherein the memory controller component further comprises means to adjust a first adjustable read data sampling time point for data sampled from the first data bus, wherein the memory controller component adjusts the first adjustable read data sampling point based, at least in part, on the sum of (i) a time required for the address signal to propagate on the address bus from the memory controller component to the first memory component and (ii) a time required for first data to propagate on the first data bus from the first memory component to the memory controller component (t PD0 +t PD2).
Closed climate cell for plant cultivation in multiple layers arranged one above the other, wherein the climate cell comprises at least one chamber in which the layers are arranged one above the other and extend from a first side of the chamber to a second side of the chamber, wherein each layer has at least one plant-cultivation container and at least one lighting platform arranged thereabove, wherein a climate is set in the at least one chamber by means of a climate system of the climate cell, characterized in that in each case one heat-storing element is arranged on the first side and second side of the at least one chamber, wherein an air flow generated by a ventilation system of the climate system flows through both heat-storing elements, wherein, at least at a point in time, one of the two sides (11a, 11b), forms an air-inlet side and the remaining side forms an air-outlet side for the air flow, wherein the heat-storing element arranged on the air-inlet side functions as a heat-emitting element and the heat-storing element arranged on the air-outlet side functions as a heat-absorbing element.
Windowed door for a cooking appliance comprising a front plate and at least one inner plate adapted for facing a cooking chamber of the cooking appliance, wherein the front plate and the at least one inner plate each provide a glass pane (8, 24) and are connected with each other by at least lateral frame parts to establish an air channel from at least one air inlet opening arranged at the bottom or in at least one lateral side of the door through a hollow space between the glass pane of the front plate and the glass pane of the at least one inner plate to at least one air outlet opening arranged at the top of the door and wherein at least one automatically moveable closure device is provided which permits the regulation of air flow through the air channel by changing the cross-section of at least one air passage aperture within or at the end or at the beginning of the air channel, characterised in that the at least one automatically moveable closure device is designed to carry out a horizontal movement to regulate the air flow through the hollow space, the horizontal direction being considered with respect to a closed position of the door.
A fluid regulator, comprising: a body having a passageway defining an orifice that fluidly couples an inlet and an outlet; a valve plug disposed within the passageway that moves relative to a valve seat adjacent the orifice; an actuator operatively coupled to the valve plug, wherein the actuator includes a sensing chamber fluidly coupled to the outlet of the passageway, wherein the actuator moves the valve plug relative to the valve seat to control fluid flow through the orifice between the inlet and the outlet in response to the pressure of a process fluid at the outlet; and and characterized by, a flow directing member coupled to the valve plug, the flow directing member having a droop reducing portion to direct fluid flowing through the orifice toward the outlet of the passageway and away from the sensing chamber of the actuator when the fluid regulator is exposed to a first pressure differential across the orifice, and a boost reducing portion to direct fluid flowing through the orifice toward the sensing chamber of the actuator when the fluid regulator is exposed to a second pressure differential across the orifice, wherein the second pressure differential is greater than the first pressure differential. a body having a passageway defining an orifice that fluidly couples an inlet and an outlet; a valve plug disposed within the passageway that moves relative to a valve seat adjacent the orifice; an actuator operatively coupled to the valve plug, wherein the actuator includes a sensing chamber fluidly coupled to the outlet of the passageway, wherein the actuator moves the valve plug relative to the valve seat to control fluid flow through the orifice between the inlet and the outlet in response to the pressure of a process fluid at the outlet; and and characterized by, a flow directing member coupled to the valve plug, the flow directing member having a droop reducing portion to direct fluid flowing through the orifice toward the outlet of the passageway and away from the sensing chamber of the actuator when the fluid regulator is exposed to a first pressure differential across the orifice, and a boost reducing portion to direct fluid flowing through the orifice toward the sensing chamber of the actuator when the fluid regulator is exposed to a second pressure differential across the orifice, wherein the second pressure differential is greater than the first pressure differential.
A method for obtaining a calcium fluoride (CaF 2) sol solution, comprising the steps of a) providing calcium in a first volume, in a non-aqueous solvent, in the form of a calcium precursor, b) adding, in a second volume 1.85 to 2.05 molar equivalents of anhydrous hydrogen fluoride per mole calcium precursor to said first volume, and c) adding a metal additive before, during or after the fluorination with hydrogen fluoride of step b, wherein said metal additive is selected from the group comprising lithium, calcium, antimony, tin, strontium, barium, aluminium, silicium, zirconium, titanium or zinc, in the form of a metal additive precursor, wherein the amount of said metal additive precursor, in relation to the amount of said calcium precursor is 1: 100 to 1: 5, as measured in molar equivalent of said metal additive to said calcium precursor, wherein - an additional amount of hydrogen fluoride (n adHF) is present in the fluorination of step b computed according to the formula n adHF = n M * X additive * Ox * A, wherein - n M is the molar amount of said calcium precursor, - X additive is the molar percentage of said metal additive precursor in relation to said molar amount of said calcium precursor wherein - X additive is in the range of 1 % to 20 %, and - Ox is the oxidation state of the metal of said additive precursor, and - A is selected from 0 ≤ A ≤ 1. a) providing calcium in a first volume, in a non-aqueous solvent, in the form of a calcium precursor, b) adding, in a second volume 1.85 to 2.05 molar equivalents of anhydrous hydrogen fluoride per mole calcium precursor to said first volume, and c) adding a metal additive before, during or after the fluorination with hydrogen fluoride of step b, wherein - an additional amount of hydrogen fluoride (n adHF) is present in the fluorination of step b computed according to the formula n adHF = n M * X additive * Ox * A, wherein - n M is the molar amount of said calcium precursor, - X additive is the molar percentage of said metal additive precursor in relation to said molar amount of said calcium precursor wherein - X additive is in the range of 1 % to 20 %, and - Ox is the oxidation state of the metal of said additive precursor, and - A is selected from 0 ≤ A ≤ 1. - n M is the molar amount of said calcium precursor, - X additive is the molar percentage of said metal additive precursor in relation to said molar amount of said calcium precursor wherein - X additive is in the range of 1 % to 20 %, and - Ox is the oxidation state of the metal of said additive precursor, and - A is selected from 0 ≤ A ≤ 1.
A system for tracking a point of gaze of an observer observing an object, wherein the system comprises: a device (cam, 71) for recording an image of an eye of the observer; a light source (73, 102, 122, 191, 192) configured to provide a luminous marker on or associated with the observed object, said marker being selectively movable within a field of view of the observer; a control unit comprising an image analyzer configured to analyze the image recorded by the image recording device, said image analyzer being configured to determine, from the image, a corneal reflection (q) of the marker on the eye of the observer and of the corneal refraction (r) of the center of a pupil (p) of the eye of the observer, wherein the system for tracking further comprises: said image analyzer being configured to determine relative positions of the corneal reflection (q) of the marker and the corneal refraction (r) of the pupil center (p); wherein the system for tracking is further configured to perform the following steps in a closed loop: - (re)positioning the luminous marker; - aquire an image of the subject cornea including the marker reflection by said device for recording an image; - determine relative positions of the corneal reflection (q) of the marker and the corneal refraction (r) of the pupil center (p) by said image analyzer; and - generate data for repositioning the marker in order to reduce a difference between the determined relative positions of the corneal reflection (q) of the marker and the corneal refraction (r) of the pupil. - (re)positioning the luminous marker; - aquire an image of the subject cornea including the marker reflection by said device for recording an image; - determine relative positions of the corneal reflection (q) of the marker and the corneal refraction (r) of the pupil center (p) by said image analyzer; and - generate data for repositioning the marker in order to reduce a difference between the determined relative positions of the corneal reflection (q) of the marker and the corneal refraction (r) of the pupil.
A method for manufacturing a part by selective laser melting in which successive layers of material are added to form said part by a first laser melting through a scanning head, wherein between the forming of said subsequent layers of the part, a plastic deformation and residual stresses are induced into the solidified material of at least one of said layers to improve the mechanical properties and the fatigue resistance of the part, wherein said plastic deformation and residual stress are induced by a second laser by a Laser Shock Peening step through a transparent solid state confining layer and an opaque ablative layer which layers are placed over at least a portion of said solidified material, wherein said confining layer comprises a top layer and a bottom layer, the bottom layer being an exchangeable consumable layer and wherein said opaque ablative layer is replaced after a certain number of shots as the layer starts to deteriorate, said confining layer allowing to maximize the shock wave pressure and preventing it to rapidly expand from the surface of the material, thus increasing the depth of shockwave penetration.
A wireless communication device, comprising: control logic configured to generate cellular signals, first non-cellular signals, and second non-cellular signals for wireless transmission to another device; first and second antennas (230, 240); and switching logic, coupled to the control logic and to the first and second antennas (230, 240), configured to route the first and second non-cellular signals to the first antenna and to route the cellular signals to the second antenna during a normal mode, and configured to route the first non-cellular signal to the first antenna and to route the second non-cellular signal to the second antenna during a sharing mode when there is an idle time associated with the transmission or reception of the cellular signals; wherein the switching logic is responsive to transmit/receive scheduling information associated with the cellular and non-cellular signals and stored in a lookup table. control logic configured to generate cellular signals, first non-cellular signals, and second non-cellular signals for wireless transmission to another device; first and second antennas (230, 240); and switching logic, coupled to the control logic and to the first and second antennas (230, 240), configured to route the first and second non-cellular signals to the first antenna and to route the cellular signals to the second antenna during a normal mode, and configured to route the first non-cellular signal to the first antenna and to route the second non-cellular signal to the second antenna during a sharing mode when there is an idle time associated with the transmission or reception of the cellular signals; wherein the switching logic is responsive to transmit/receive scheduling information associated with the cellular and non-cellular signals and stored in a lookup table.
A method for converting glycerol into propylene glycol comprising the steps of: directing a basic glycerol containing feed stream and a hydrogen containing gas to a reaction zone comprising at least two catalyst beds separated by a quench mixing zone wherein the reaction zone operates at glycerol conversion conditions sufficient to form a reaction zone product comprising propylene glycol; and directing a quench material into the quench mixing zone, wherein the quench material is directed into the quench mixing zone to prevent the temperature from increasing across at least one catalyst bed by a temperature of more than 10 to 80°F (6 to 44°C). directing a basic glycerol containing feed stream and a hydrogen containing gas to a reaction zone comprising at least two catalyst beds separated by a quench mixing zone wherein the reaction zone operates at glycerol conversion conditions sufficient to form a reaction zone product comprising propylene glycol; and directing a quench material into the quench mixing zone, wherein the quench material is directed into the quench mixing zone to prevent the temperature from increasing across at least one catalyst bed by a temperature of more than 10 to 80°F (6 to 44°C).