mhurhangee/patent-ind-claim-en huggingface dataset:
An audio signal processing apparatus to perform binaural filtering an input audio signal, the apparatus comprising: an ipsilateral filtering unit configured to filter the input audio signal by an ipsilateral transfer function to generate an ipsilateral output signal; and a contralateral filtering unit configured to filter the input audio signal by a contralateral transfer function to generate a contralateral output signal, wherein the ipsilateral and contralateral transfer functions in a first frequency band and the ipsilateral and contralateral transfer functions in a second frequency band are generated according to below equation with respect to the input audio signal, if k < C 0 h _ I k = M _ I k h _ C k = M _ C k else h _ I k = H _ I k h _ C k = H _ C k , herein, k is a frequency index, C0 is a critical frequency index, the first frequency band is lower than a frequency band according to C0 and the second frequency band is higher than a frequency band according to C0, h_I(k) and h_C(k) indicate the ipsilateral and contralateral transfer functions, H_I(k) and H_C(k) indicate ipsilateral and contralateral head related transfer functions, HRTFs, and M_I(k) and M_C(k) indicate ipsilateral and contralateral modified interaural transfer functions, MITFs, wherein the MITFs are generated by modifying interaural transfer functions, ITFs, based on a notch component of at least one of the ipsilateral HRTF and the contralateral HRTF with respect to the input audio signal. an ipsilateral filtering unit configured to filter the input audio signal by an ipsilateral transfer function to generate an ipsilateral output signal; and a contralateral filtering unit configured to filter the input audio signal by a contralateral transfer function to generate a contralateral output signal, wherein the ipsilateral and contralateral transfer functions in a first frequency band and the ipsilateral and contralateral transfer functions in a second frequency band are generated according to below equation with respect to the input audio signal, if k < C 0 h _ I k = M _ I k h _ C k = M _ C k else h _ I k = H _ I k h _ C k = H _ C k , herein, k is a frequency index, C0 is a critical frequency index, the first frequency band is lower than a frequency band according to C0 and the second frequency band is higher than a frequency band according to C0, h_I(k) and h_C(k) indicate the ipsilateral and contralateral transfer functions, H_I(k) and H_C(k) indicate ipsilateral and contralateral head related transfer functions, HRTFs, and M_I(k) and M_C(k) indicate ipsilateral and contralateral modified interaural transfer functions, MITFs, wherein the MITFs are generated by modifying interaural transfer functions, ITFs, based on a notch component of at least one of the ipsilateral HRTF and the contralateral HRTF with respect to the input audio signal.
A perovskite -containing solar cell module comprising: a substrate having a first surface; a first cell ; and a second cell , wherein: each cell comprises, in order: a first contact layer comprising a first material, positioned on the substrate , and having a second surface and a first thickness; an electron transfer layer (ETL) comprising a second material and having a second thickness; an active layer comprising the perovskite and having a third thickness; a hole transfer layer (HTL) comprising a third material and having a fourth thickness; and a second contact layer comprising a fourth material and having a fifth thickness, wherein: the first cell and the second cell are electrically connected by a first gap filled with the fourth material, and the first gap passes through the active layer, the HTL , and substantially through the ETL to terminate at the second surface; and characterised in that the second thickness of the ETL is 1 nm - 45 nm. a substrate having a first surface; a first cell ; and a second cell , wherein: each cell comprises, in order: a first contact layer comprising a first material, positioned on the substrate , and having a second surface and a first thickness; an electron transfer layer (ETL) comprising a second material and having a second thickness; an active layer comprising the perovskite and having a third thickness; a hole transfer layer (HTL) comprising a third material and having a fourth thickness; and a second contact layer comprising a fourth material and having a fifth thickness, wherein: the first cell and the second cell are electrically connected by a first gap filled with the fourth material, and the first gap passes through the active layer, the HTL , and substantially through the ETL to terminate at the second surface; and characterised in that the second thickness of the ETL is 1 nm - 45 nm. a first contact layer comprising a first material, positioned on the substrate , and having a second surface and a first thickness; an electron transfer layer (ETL) comprising a second material and having a second thickness; an active layer comprising the perovskite and having a third thickness; a hole transfer layer (HTL) comprising a third material and having a fourth thickness; and a second contact layer comprising a fourth material and having a fifth thickness, wherein: the first cell and the second cell are electrically connected by a first gap filled with the fourth material, and the first gap passes through the active layer, the HTL , and substantially through the ETL to terminate at the second surface; and characterised in that the second thickness of the ETL is 1 nm - 45 nm. the first cell and the second cell are electrically connected by a first gap filled with the fourth material, and the first gap passes through the active layer, the HTL , and substantially through the ETL to terminate at the second surface; and characterised in that the second thickness of the ETL is 1 nm - 45 nm.
Haptic operating device comprising a basic body and a rotary unit and a magnetorheological transmission apparatus comprising at least two components configured to be coupled the coupling intensity of which can be influenced, wherein a magnetorheological medium having magnetically polarizing particles which can be influenced by a magnetic field is disposed in a duct for influencing the coupling intensity between the components provided for coupling, and wherein at least one magnetic field generating device is provided for generating at least one magnetic field so as to influence the magnetorheological medium by means of the magnetic field , wherein the basic body is coupled with one of the two components and the rotary unit , with the other of the two components , wherein at least one rotatable transmission member is provided in the duct as a magnetic field concentrator, wherein the rotatable transmission member is caused to rotate during rotational movement of at least one of the components provided for coupling, and wherein the basic body comprises a base plate and an annular takeup housing with a takeup space disposed therein wherein the takeup space is radially outwardly delimited by an outer leg of the takeup housing substantially extending in the axial direction, and wherein a shaft non-rotatably connected with the rotary unit is rotatably accommodated centrally at the takeup housing , and wherein an electric coil is received in the takeup space , and wherein in a radially inwardly region a circulating ring non-rotatably connected with the shaft follows the takeup housing separated by an axial gap , and wherein the duct is disposed in the takeup space and is radially outwardly delimited by the outer leg and radially inwardly, substantially by the circulating ring , so that a substantial part of the magnetic field of the magnetic field generating device extends through the takeup housing, the duct and the circulating ring .
Magazine (M) for receiving multiple uniform elements (B), which have a shaft and a head, the magazine (M) comprising a) a cylinder (W), defined by a lateral surface (F), which is formed about an axis of rotation (T) which extends in an axial direction (Z), b) wherein at least one groove (N), which runs around the axis of rotation (T) helically in multiple loops starting from a groove start (A) to a groove end (E), is made in the lateral surface (F), c) with the result that multiple elements (B) can be inserted into the groove (N) in each case with their shaft directed into the interior of the cylinder, in order to store them in this manner, characterized in that d) at least one drivable carrier (R) is provided, which can be moved in a conveying direction (D) in the circumferential direction around the lateral surface (F), in order to shift the head or shaft of an element (B), protruding radially from the groove, along the groove (N) through a lateral impact. a) a cylinder (W), defined by a lateral surface (F), which is formed about an axis of rotation (T) which extends in an axial direction (Z), b) wherein at least one groove (N), which runs around the axis of rotation (T) helically in multiple loops starting from a groove start (A) to a groove end (E), is made in the lateral surface (F), c) with the result that multiple elements (B) can be inserted into the groove (N) in each case with their shaft directed into the interior of the cylinder, in order to store them in this manner, characterized in that d) at least one drivable carrier (R) is provided, which can be moved in a conveying direction (D) in the circumferential direction around the lateral surface (F), in order to shift the head or shaft of an element (B), protruding radially from the groove, along the groove (N) through a lateral impact.
A lens support structure for supporting an intraocular lens (IOL) , the lens support structure being configured and operable to be securely implanted in a lens capsule of a human eye and hold the IOL in one of a plurality of positions, the support structure comprising a repositioning assembly configured and operable to be activated remotely by a remote energy source and controllably displace the IOL in at least one of axial and angular directions, respectively along and around an optical axis of the IOL, thereby enabling moving the IOL between the plurality of positions, the lens support structure being characterized in that said repositioning assembly comprises at least one actuator and a respective teeth arrangement , wherein one of the at least one actuator and the at least one teeth arrangement has a fixed spatial relationship with the IOL, such that it moves together with the IOL, the at least one actuator being reversibly shiftable between first and second spatial configurations (1221 and 1222), when the energy source is respectively acting and not acting on the at least one actuator, the at least one actuator comprises a latch operable to selectively engage and disengage with the teeth arrangement, during said first and second spatial configurations respectively, such that when engaging the latch pushes one tooth of the at least one teeth arrangement and causes a relative axial or angular movement between the at least one actuator and the at least one teeth arrangement, resulting in said controllable displacement of the IOL between two adjacent positions of said plurality of positions. the lens support structure being characterized in that said repositioning assembly comprises at least one actuator and a respective teeth arrangement , wherein one of the at least one actuator and the at least one teeth arrangement has a fixed spatial relationship with the IOL, such that it moves together with the IOL, the at least one actuator being reversibly shiftable between first and second spatial configurations (1221 and 1222), when the energy source is respectively acting and not acting on the at least one actuator, the at least one actuator comprises a latch operable to selectively engage and disengage with the teeth arrangement, during said first and second spatial configurations respectively, such that when engaging the latch pushes one tooth of the at least one teeth arrangement and causes a relative axial or angular movement between the at least one actuator and the at least one teeth arrangement, resulting in said controllable displacement of the IOL between two adjacent positions of said plurality of positions.
An apparatus for drying buildings, the apparatus comprising a floor heating surface for emitting infrared radiation onto a floor of a building, a wall heating surface for emitting infrared radiation onto a wall of the building adjacent to the floor, and at least one control unit, wherein the floor heating surface is angled relative to the wall heating surface in the apparatus , wherein the floor heating surface is directly or substantially directly adjacent to the wall heating surface , wherein the apparatus is configured to generate a controlled air flow of air heated by the floor heating surface along the floor heating surface to the wall heating surface , wherein the floor heating surface laterally comprises one or more spacers for creating a distance of the floor heating surface to the floor, whereby the floor heating surface and its spacers define a first subclimate zone, wherein the wall heating surface laterally comprises one or more spacers for creating a distance of the wall heating surface to the wall, whereby the wall surface and its spacers define a second subclimate zone, and wherein the control unit is designed for separately controlling a heating activity of the floor heating surface and a heating activity of the wall heating surface. a floor heating surface for emitting infrared radiation onto a floor of a building, a wall heating surface for emitting infrared radiation onto a wall of the building adjacent to the floor, and at least one control unit, wherein the floor heating surface is angled relative to the wall heating surface in the apparatus , wherein the floor heating surface is directly or substantially directly adjacent to the wall heating surface , wherein the apparatus is configured to generate a controlled air flow of air heated by the floor heating surface along the floor heating surface to the wall heating surface , wherein the floor heating surface laterally comprises one or more spacers for creating a distance of the floor heating surface to the floor, whereby the floor heating surface and its spacers define a first subclimate zone, wherein the wall heating surface laterally comprises one or more spacers for creating a distance of the wall heating surface to the wall, whereby the wall surface and its spacers define a second subclimate zone, and wherein the control unit is designed for separately controlling a heating activity of the floor heating surface and a heating activity of the wall heating surface.
Portable power tool , in particular angle grinder, having at least one electromotive drive acting on an output shaft , in particular an electronically commutated motor , which is intended to drive a tool spindle , having at least one first housing that consists of at least one first housing half shell and comprises at least one first housing part , which accommodates the electromotive drive , and a second housing part , which serves as a handle , and having a rechargeable battery serving as energy source, characterized in that a ratio of a length 1 of the portable power tool to a height h of the first housing part is between 1.5 and 2.8, but in particular is 2.25, wherein the length 1 of the portable power tool is defined inclusive of a length l 1 of the rechargeable battery , wherein a ratio of the diameter (d) of the machining tool to the diameter (d 1 ) of the electromotive drive is between 1.5 and 2.6, particularly between 1.8 and 2.4, but preferably between 1.9 and 2.1, wherein the electromotive drive forms with the first housing part a first common axis , wherein the length of the portable power tool is defined along a second axis , wherein the two axes are at an angle a to one another of between 60° and 120°, particularly between 80° and 100°, but preferably approximately 90°.
Engine pylon for fastening an engine of an aircraft , the engine pylon having: - a structure intended to be fastened beneath a wing of the aircraft and having two lateral faces (154a-b), wherein the structure has a tunnel passing through it, wherein each of the two ends of the tunnel emerges at one of the lateral faces (154a-b), - a spreader housed in the tunnel and fastened in an articulated manner to each lateral face (154a-b) by a first connection point (158a-b), wherein a first end of the spreader has a first bore , and wherein a second end of the spreader has two second bores (162a-b) each intended to form a second connection point (163a-b) with the engine , and - a rod fastened in an articulated manner to said first bore and having two third bores (172a-b) each intended to form a third connection point (173a-b) with the engine . - a structure intended to be fastened beneath a wing of the aircraft and having two lateral faces (154a-b), wherein the structure has a tunnel passing through it, wherein each of the two ends of the tunnel emerges at one of the lateral faces (154a-b), - a spreader housed in the tunnel and fastened in an articulated manner to each lateral face (154a-b) by a first connection point (158a-b), wherein a first end of the spreader has a first bore , and wherein a second end of the spreader has two second bores (162a-b) each intended to form a second connection point (163a-b) with the engine , and - a rod fastened in an articulated manner to said first bore and having two third bores (172a-b) each intended to form a third connection point (173a-b) with the engine .
A battery pack monitoring system (A) comprising: a battery pack that includes a battery unit capable of supplying electric power to an electric-powered work vehicle (E), and can be attached to and detached from the electric-powered work vehicle (E); a detection mechanism configured to detect a state inside the battery pack or a state of an environment surrounding the battery pack with the battery pack detached from the electric-powered work vehicle (E) and detect whether or not an environment in which the battery pack is stored is appropriate, by determining whether or not a period in which the detected state does not meet a predetermined state reached a predetermined period; a detection mechanism power supply that is separate from the battery unit , and is capable of supplying electric power to the detection mechanism ; a notification signal output unit configured to output a notification signal when it is detected that the environment in which the battery pack is stored is inappropriate, by the detection mechanism which has determined that a period in which the detected state does not meet a predetermined state reached a predetermined period; and a notification device configured to perform notification based on the notification signal output by the notification signal output unit. a battery pack that includes a battery unit capable of supplying electric power to an electric-powered work vehicle (E), and can be attached to and detached from the electric-powered work vehicle (E); a detection mechanism configured to detect a state inside the battery pack or a state of an environment surrounding the battery pack with the battery pack detached from the electric-powered work vehicle (E) and detect whether or not an environment in which the battery pack is stored is appropriate, by determining whether or not a period in which the detected state does not meet a predetermined state reached a predetermined period; a detection mechanism power supply that is separate from the battery unit , and is capable of supplying electric power to the detection mechanism ; a notification signal output unit configured to output a notification signal when it is detected that the environment in which the battery pack is stored is inappropriate, by the detection mechanism which has determined that a period in which the detected state does not meet a predetermined state reached a predetermined period; and a notification device configured to perform notification based on the notification signal output by the notification signal output unit.
A method for resizing an image comprising: defining a low-energy seam in the image, wherein the low-energy seam comprises a seam band with a width of more than one pixel; determining seams neighboring the low-energy seam; interpolating neighboring seams into a new seam; and combining the new seam and the image to resize the image. defining a low-energy seam in the image, wherein the low-energy seam comprises a seam band with a width of more than one pixel; determining seams neighboring the low-energy seam; interpolating neighboring seams into a new seam; and combining the new seam and the image to resize the image.
Polymer composition for use in thermal spray coating application, in which the composition comprises: a) an α-olefin homopolymer or copolymer; b) a functionalized α-olefin homopolymer or copolymer; c) a polyolefinic elastomer; and d) an anti-corrosion additive, wherein the anti-corrosion additive is zinc phosphate. a) an α-olefin homopolymer or copolymer; b) a functionalized α-olefin homopolymer or copolymer; c) a polyolefinic elastomer; and d) an anti-corrosion additive, wherein the anti-corrosion additive is zinc phosphate.
An auxiliary module comprising a casing of generally rectangular box shape that presents a rear face via which it is adapted to be mounted on a rail, two side main faces that are perpendicular to said rear face and via one of which it is adapted to adjoin a main module , and top and bottom faces that are perpendicular to said side main faces and said rear face , said casing including, on one of said top and bottom faces , two openings that allow access to housings of electrical-connection terminals situated inside the casing , together with at least one inlet situated between the rear face of the casing and at least one of said openings , for inserting electric wires coming from the main module into the casing ; the auxiliary module being characterized in that said casing includes internal arrangements for mounting, inside the casing , a first internal element that presents two apertures and two passages that open out onto distinct locations in a face of said first internal element , said internal arrangements being arranged in symmetrical manner about a mid-plane (P) that extends parallel to said top and bottom faces of the casing , and that subdivides said side main faces into two equal portions, such that said first internal element is adapted to be mounted on said internal arrangements in two positions that are symmetrical about said mid-plane (P) so that said apertures and said passages form said openings and said inlet respectively of the casing , one of said positions corresponding to forming said openings and inlet in said top face of the casing , and the other, in said bottom face .
A recombinant adeno-associated viral (rAAV) particle for use in a method of delivering a rAAV to the central nervous system (CNS) of a mammal, wherein the rAAV particle is administered to the striatum of the mammal by convection enhanced delivery (CED), wherein the rAAV particle comprises a rAAV vector encoding a heterologous nucleic acid that is expressed in at least the occipital cortex and/or layer IV of the cerebral cortex and striatum of the mammal, wherein the rAAV particle comprises an AAV serotype 2 (AAV2) capsid, and wherein the rAAV particle is administered to at least one site in the caudate nucleus and two sites in the putamen in each hemisphere of the striatum.