mhurhangee/patent-ind-claim-en huggingface dataset:
A display device comprising: a display screen ; a backlight including a frame , a light guide panel arranged in the frame, and a plurality of light sources coupled to the light guide panel, wherein the frame further comprises a cavity , and wherein a gap is arranged intermediate the light guide panel and the display screen; a timing controller embedded driver, TED, integrated circuit, IC, coupled to a glass substrate of the display screen using chip-on-glass, COG, bonding, and a flexible printed circuit , FPC, in communication with the TED IC and including an electrical component disposed thereto, the electrical component at least partially disposed in the cavity of the frame, wherein the backlight further includes spacers respectively disposed between adjacent light sources of the plurality of light sources, and the spacers include a reflective coating to facilitate the distribution of light emitted by the plurality of light sources. a display screen ; a backlight including a frame , a light guide panel arranged in the frame, and a plurality of light sources coupled to the light guide panel, wherein the frame further comprises a cavity , and wherein a gap is arranged intermediate the light guide panel and the display screen; a timing controller embedded driver, TED, integrated circuit, IC, coupled to a glass substrate of the display screen using chip-on-glass, COG, bonding, and a flexible printed circuit , FPC, in communication with the TED IC and including an electrical component disposed thereto, the electrical component at least partially disposed in the cavity of the frame, wherein the backlight further includes spacers respectively disposed between adjacent light sources of the plurality of light sources, and the spacers include a reflective coating to facilitate the distribution of light emitted by the plurality of light sources.
A masking composition for forming a masking film comprising: a. a polymer comprising a unit having structure (I): wherein X is selected from the group consisting of -SO 2 -, -C(=O)- and -O-; A is a direct bond or A is selected from the group consisting of structure (II): R 1 , R 2 , R 3 , R 4 and R 5 are each independently selected from the group consisting of H, halo, (C 1-3 ) alkyl, (C 1-3 ) fluorinated alkyl, hydroxy, (C 1-3 ) alkoxy, and (C 1-3 ) alkyl carbonyl; and q, r, s and t are each independently selected from the group consisting of 0, 1, 2, 3 and 4; and b. an organic solvent, wherein the polymer has an average molecular weight of less than 50000 and is present in the composition in an amount between 0.1 wt% and 20 wt%, and wherein the polymer comprises a mixture of polymers, wherein the mixture of polymers comprises a first polymer having an average molecular weight greater than 30000 and a second polymer having an average molecular weight less than 30000, both the first polymer and the second polymer comprising a unit having structure (I). a. a polymer comprising a unit having structure (I): wherein X is selected from the group consisting of -SO 2 -, -C(=O)- and -O-; A is a direct bond or A is selected from the group consisting of structure (II): R 1 , R 2 , R 3 , R 4 and R 5 are each independently selected from the group consisting of H, halo, (C 1-3 ) alkyl, (C 1-3 ) fluorinated alkyl, hydroxy, (C 1-3 ) alkoxy, and (C 1-3 ) alkyl carbonyl; and q, r, s and t are each independently selected from the group consisting of 0, 1, 2, 3 and 4; and X is selected from the group consisting of -SO 2 -, -C(=O)- and -O-; A is a direct bond or A is selected from the group consisting of structure (II): R 1 , R 2 , R 3 , R 4 and R 5 are each independently selected from the group consisting of H, halo, (C 1-3 ) alkyl, (C 1-3 ) fluorinated alkyl, hydroxy, (C 1-3 ) alkoxy, and (C 1-3 ) alkyl carbonyl; and q, r, s and t are each independently selected from the group consisting of 0, 1, 2, 3 and 4; and b. an organic solvent,
A machine tool comprising: a spindle which rotates a workpiece (W1) around an axis (AX1) of the spindle ; an actuator which reciprocates a rod arranged parallel to the axis (AX1) of the spindle , characterized in that a coupler switched between a coupling position (P1) and a standby position (P2), the coupler connecting the rod and an ejecting shaft for ejecting the workpiece (W1) and inserted in the spindle when held in the coupling position (P1), and the coupler not being connected to at least the ejecting shaft when held in the standby position (P2), wherein the ejecting shaft along with the coupler is moved in the direction of the axis of (AX1) the spindle according to reciprocation of the rod when the coupler is held in the coupling position (P1). a spindle which rotates a workpiece (W1) around an axis (AX1) of the spindle ; an actuator which reciprocates a rod arranged parallel to the axis (AX1) of the spindle , characterized in that a coupler switched between a coupling position (P1) and a standby position (P2), the coupler connecting the rod and an ejecting shaft for ejecting the workpiece (W1) and inserted in the spindle when held in the coupling position (P1), and the coupler not being connected to at least the ejecting shaft when held in the standby position (P2), wherein the ejecting shaft along with the coupler is moved in the direction of the axis of (AX1) the spindle according to reciprocation of the rod when the coupler is held in the coupling position (P1).
A method for producing a reaction product, with which the reaction product is obtained from a starting material through a particular organic synthesis reaction, the method comprising: (a) a step of setting a target wavelength to a peak wavelength of a reaction region involved in the organic synthesis reaction in an infrared absorption spectrum of the starting material; (b) a step of preparing an infrared heater that emits an infrared ray having a peak at the target wavelength from a structure constituted by a metal electrode layer, a dielectric layer, and a metal substrate stacked in this order from an outer side toward an inner side, the structure being a plate-shaped member disposed below a heating element; and (c) a step of obtaining the reaction product by allowing the organic synthesis reaction to proceed while the infrared ray having a peak at the target wavelength is being applied to the starting material from the infrared heater. (a) a step of setting a target wavelength to a peak wavelength of a reaction region involved in the organic synthesis reaction in an infrared absorption spectrum of the starting material; (b) a step of preparing an infrared heater that emits an infrared ray having a peak at the target wavelength from a structure constituted by a metal electrode layer, a dielectric layer, and a metal substrate stacked in this order from an outer side toward an inner side, the structure being a plate-shaped member disposed below a heating element; and (c) a step of obtaining the reaction product by allowing the organic synthesis reaction to proceed while the infrared ray having a peak at the target wavelength is being applied to the starting material from the infrared heater.
A crystalline free-plate habit of L-arginine salt of (R)-2-(7-(4-cyclopentyl-3-(trifluoromethyl)benzyloxy)-1,2,3,4-tetrahydrocyclopenta[b]indol-3-yl)acetic acid; wherein said crystalline free-plate habit has a BET specific surface area of 0.1 m 2 /g to 5.0 m 2 /g.
An apparatus for internal ultrasound procedures, comprising: a transducer for emitting and/or receiving ultrasound signals; first and second motors wherein the first motor is operatively connected to the transducer so that operation of the first motor turns the transducer around a rotation axis, which is the longitudinal axis of the apparatus, and wherein the second motor is operatively connected to the transducer so that pivoting motion of the transducer around a pivoting axis transverse to the rotation axis of the apparatus is a function of the operation of the second motor characterised in that the first motor is configured to turn a first shaft having a lumen and being operatively connected to the transducer, and wherein the second motor is configured to operate a second shaft that extends through the lumen of the first shaft and is operatively connected to the transducer. a transducer for emitting and/or receiving ultrasound signals; first and second motors wherein the first motor is operatively connected to the transducer so that operation of the first motor turns the transducer around a rotation axis, which is the longitudinal axis of the apparatus, and wherein the second motor is operatively connected to the transducer so that pivoting motion of the transducer around a pivoting axis transverse to the rotation axis of the apparatus is a function of the operation of the second motor characterised in that the first motor is configured to turn a first shaft having a lumen and being operatively connected to the transducer, and wherein the second motor is configured to operate a second shaft that extends through the lumen of the first shaft and is operatively connected to the transducer.
A lens barrel comprising: a cylindrical lens frame supporting a lens unit(L31, L32, L51) and having three or more groove units arranged in a circumferential direction thereof; a cylindrical frame support unit supporting the lens frame and having three or more through holes formed in a circumferential direction of the frame support unit to penetrate the frame support unit; and three or more insertion units inserted into the three or more groove units via the three or more through holes, wherein a plurality of openings are formed at each through hole, wherein the plurality of openings at each through hole have different opening widths and are arranged in a thicknesswise direction of the frame support unit, wherein each of two or more insertion units among the three or more insertion units includes a concentric cylinder unit arranged concentrically with respect to a pivot axis of the insertion portion of the respective insertion unit and an eccentric cylinder unit arranged eccentrically with respect to the pivot axis of the insertion portion of the respective insertion unit; and wherein one or more of the plurality of openings at each through hole has an elliptical shape with a major axis parallel to an optical axis of the lens barrel , and one or more of the other openings has an elliptical shape with a major axis parallel to the circumferential direction of the frame support unit . a cylindrical lens frame supporting a lens unit(L31, L32, L51) and having three or more groove units arranged in a circumferential direction thereof; a cylindrical frame support unit supporting the lens frame and having three or more through holes formed in a circumferential direction of the frame support unit to penetrate the frame support unit; and three or more insertion units inserted into the three or more groove units via the three or more through holes, wherein a plurality of openings are formed at each through hole, wherein the plurality of openings at each through hole have different opening widths and are arranged in a thicknesswise direction of the frame support unit, wherein each of two or more insertion units among the three or more insertion units includes a concentric cylinder unit arranged concentrically with respect to a pivot axis of the insertion portion of the respective insertion unit and an eccentric cylinder unit arranged eccentrically with respect to the pivot axis of the insertion portion of the respective insertion unit; and wherein one or more of the plurality of openings at each through hole has an elliptical shape with a major axis parallel to an optical axis of the lens barrel , and one or more of the other openings has an elliptical shape with a major axis parallel to the circumferential direction of the frame support unit .
A filtration device having a plurality of filtration units , wherein a filtration unit respectively comprises: a first container , configured to receive a medium to be filtered, a second container , configured to receive a filtrate , at least one connection line , which connects the first container to the second container , and a filter medium between the first container and the second container , in order to filter the medium to be filtered; wherein the first container is configured to be subjected to positive pressure, wherein the second container is configured to receive a measuring instrument in the event of ambient pressure, and wherein the at least one connection line extends such that the flow direction of a medium flowing from a first container to a second container changes. a first container , configured to receive a medium to be filtered, a second container , configured to receive a filtrate , at least one connection line , which connects the first container to the second container , and a filter medium between the first container and the second container , in order to filter the medium to be filtered; wherein the first container is configured to be subjected to positive pressure, wherein the second container is configured to receive a measuring instrument in the event of ambient pressure, and wherein the at least one connection line extends such that the flow direction of a medium flowing from a first container to a second container changes.
A sound absorbing sheet comprising: a number of convex-concave patterns having a pitch of 0.5 mm to 20 mm, said convex-concave patterns comprising protrusions having a width or diameter of 0.2 mm to 5 mm and depressions on one surface of a porous substrate , wherein the sound absorbing sheet has an area ratio of the depressions from 40% to 99%, as represented by Equation 1, and a region (B) corresponding to the depressions exhibits lower air permeability than a region (A) corresponding to the protrusions, wherein the porous substrate has a basis weight of 30 g/m 2 to 800 g/m 2 , and wherein the porous substrate has an air permeability of 20 L/m 2 /s to 1200 L/m 2 /s at a pressure of 200 Pa after formation of the convex-concave patterns. Area ratio of depressions = Area of depressions / Area of porous substrate a number of convex-concave patterns having a pitch of 0.5 mm to 20 mm, said convex-concave patterns comprising protrusions having a width or diameter of 0.2 mm to 5 mm and depressions on one surface of a porous substrate , wherein the sound absorbing sheet has an area ratio of the depressions from 40% to 99%, as represented by Equation 1, and a region (B) corresponding to the depressions exhibits lower air permeability than a region (A) corresponding to the protrusions, wherein the porous substrate has a basis weight of 30 g/m 2 to 800 g/m 2 , and wherein the porous substrate has an air permeability of 20 L/m 2 /s to 1200 L/m 2 /s at a pressure of 200 Pa after formation of the convex-concave patterns. Area ratio of depressions = Area of depressions / Area of porous substrate
A multilayer laminate panel comprising: - a first layer of stone-based material , having a thickness from about 2 mm to about 50 mm, being stone or a stone derivative, and configured to be under compression when the panel is mechanically loaded from the exposed surface of the first layer and supported on two or more anchoring points, such that the panel having a maximum load at rupture of at least 7 times as compared to the same stone thickness, measured in accordance with ASTM C293; - a second layer of dissimilar material of lower density, which comprises cork or a derivative of cork, having a thickness from about 1 mm to about 50 mm; - at least two layers of resin impregnated fibers , wherein: - a first fiber layer is positioned at the interface between the stone or derivate stone material and the cork or cork derivate layer ; and - a second fiber layer is positioned on the exterior face of the cork or cork derivate layer ; the resin being provided by the fiber-containing reinforcement layers serving to attach the layers together to form a unitary panel structure; characterized by : - the first fiber layer is a multiaxial reinforcement fabric made from glass fibers with a specific mass between 150-300 g/m 2 per orientation axis; and - the second fiber layer comprises a woven fabric with a specific mass between 150-400 g/m 2 . - a first layer of stone-based material , having a thickness from about 2 mm to about 50 mm, being stone or a stone derivative, and configured to be under compression when the panel is mechanically loaded from the exposed surface of the first layer and supported on two or more anchoring points, such that the panel having a maximum load at rupture of at least 7 times as compared to the same stone thickness, measured in accordance with ASTM C293; - a second layer of dissimilar material of lower density, which comprises cork or a derivative of cork, having a thickness from about 1 mm to about 50 mm; - at least two layers of resin impregnated fibers , wherein: - a first fiber layer is positioned at the interface between the stone or derivate stone material and the cork or cork derivate layer ; and - a second fiber layer is positioned on the exterior face of the cork or cork derivate layer ; the resin being provided by the fiber-containing reinforcement layers serving to attach the layers together to form a unitary panel structure; - the first fiber layer is a multiaxial reinforcement fabric made from glass fibers with a specific mass between 150-300 g/m 2 per orientation axis; and - the second fiber layer comprises a woven fabric with a specific mass between 150-400 g/m 2 .
A method, in an electronic device, for planning an indoor radio network for a building, the method comprising: preprocessing an image of a floor plan of the building; generating, using a conditional Generative Adversarial Network, cGAN, a radio propagation map for the floor plan using the preprocessed image; and determining an indoor radio transmitter distribution for the floor plan using the radio propagation map by: applying a clustering algorithm to the radio propagation map to determine regions within the radio propagation map, wherein each region comprises signal points that have a computed signal power over a power threshold, and are within a physical distance threshold of each other; determining the centers of each region; and placing radio transmitters at the centers of each region in the indoor radio transmitter distribution. preprocessing an image of a floor plan of the building; generating, using a conditional Generative Adversarial Network, cGAN, a radio propagation map for the floor plan using the preprocessed image; and determining an indoor radio transmitter distribution for the floor plan using the radio propagation map by: applying a clustering algorithm to the radio propagation map to determine regions within the radio propagation map, wherein each region comprises signal points that have a computed signal power over a power threshold, and are within a physical distance threshold of each other; determining the centers of each region; and placing radio transmitters at the centers of each region in the indoor radio transmitter distribution. applying a clustering algorithm to the radio propagation map to determine regions within the radio propagation map, wherein each region comprises signal points that have a computed signal power over a power threshold, and are within a physical distance threshold of each other; determining the centers of each region; and placing radio transmitters at the centers of each region in the indoor radio transmitter distribution.
A method for cleaning a cooling device for a motor vehicle , the cooling device comprising a heat exchanger , an electric drive motor connected to the heat exchanger , preferably via a fan cover ; and a fan wheel that is operatively connected to the drive motor , characterised in that the method comprises: operating the cooling device in a shaking mode, comprising controlling a current supply to the drive motor to generate a shaking movement of the heat exchanger , the drive motor and/or the fan wheel to shake impurities off the cooling device .
A method of enhancing multicast group membership protocol, the method comprising: determining , at an adjacent multicast network device, ND, that is operative to perform multicast group membership registration of a plurality of host NDs, a number of host NDs that are to receive query messages; determining current processing capacity of the adjacent multicast ND for processing group membership reports to be received from the host NDs; determining a value of a query response interval based on the number of host NDs and the current processing capacity; transmitting , to each one of the plurality of host NDs, a query message including the determined value of the query response interval, wherein the query message causes the adjacent multicast ND to receive from each one of the plurality of host NDs a group membership report at a time interval defined by the query response interval; and causing an update of a general query interval based on the query response interval, wherein the general query interval is to be used by the adjacent multicast ND for timing the transmission of query messages. determining , at an adjacent multicast network device, ND, that is operative to perform multicast group membership registration of a plurality of host NDs, a number of host NDs that are to receive query messages; determining current processing capacity of the adjacent multicast ND for processing group membership reports to be received from the host NDs; determining a value of a query response interval based on the number of host NDs and the current processing capacity; transmitting , to each one of the plurality of host NDs, a query message including the determined value of the query response interval, wherein the query message causes the adjacent multicast ND to receive from each one of the plurality of host NDs a group membership report at a time interval defined by the query response interval; and causing an update of a general query interval based on the query response interval, wherein the general query interval is to be used by the adjacent multicast ND for timing the transmission of query messages.
An isolated variant of an antimicrobial peptide; wherein the variant has antimicrobial activity; and wherein the variant comprises the amino acid sequence selected from the group consisting of SEQ ID NO: 3 and SEQ ID NO: 4.