mhurhangee/patent-ind-claim-en huggingface dataset:
A bioactive material coating method comprising: - flowing a coating solution, produced as a bioactive material being dissolved in a mixed solvent, inside a permeable structure having a lumen, wherein the bioactive material is a paclitaxel; and - coating the bioactive material only on an inner surface of the structure, wherein the mixed solvent is made mixing two or more solvents having different features, wherein one of the solvents is a non-polar solvent and another one of the solvents is a polar solvent and wherein the polar solvent is water and the non-polar solvent is acetone, wherein the ratio of acetone to water is 9:1, 8:2 or 7:3, wherein the coating is performed to form a concentration of the bioactive material across a thickness of the structure that decreases from the inner surface of the structure to an outer surface of the structure, wherein the structure is a thin film of extended polytetrafluoroethylene (e-PTFE) having fine pores. - flowing a coating solution, produced as a bioactive material being dissolved in a mixed solvent, inside a permeable structure having a lumen, wherein the bioactive material is a paclitaxel; and - coating the bioactive material only on an inner surface of the structure,
An integrated thermoformable splint and heater comprising: - a thermoplastic material having a top side and a bottom side opposite the top side ; and - an oxygen activated heater operatively attached in association with at least one of the top and bottom sides of the thermoplastic material , wherein the oxygen activated heater comprises: - a heater sheet , a wicking layer and an air diffuser layer each having a respective top surface and a bottom surface opposite their respective top surfaces , wherein: - the bottom surface of the heater sheet is positioned in operative contact with at least one of the top and bottom sides of the thermoplastic material ; - the bottom surface of the wicking layer is positioned in operative contact with the top surface of the heater sheet ; and - the bottom surface of the air diffuser layer is positioned in operative contact with the top surface of the wicking layer , and wherein the integrated thermoformable splint and heater further comprises an outer housing having an interior region and an outer surface , wherein the oxygen activated heater and the thermoplastic material are contained within the interior region of the outer housing . - a thermoplastic material having a top side and a bottom side opposite the top side ; and - an oxygen activated heater operatively attached in association with at least one of the top and bottom sides of the thermoplastic material , wherein the oxygen activated heater comprises: - a heater sheet , a wicking layer and an air diffuser layer each having a respective top surface and a bottom surface opposite their respective top surfaces , wherein: - the bottom surface of the heater sheet is positioned in operative contact with at least one of the top and bottom sides of the thermoplastic material ; - the bottom surface of the wicking layer is positioned in operative contact with the top surface of the heater sheet ; and - the bottom surface of the air diffuser layer is positioned in operative contact with the top surface of the wicking layer , and wherein
Heat recovery device for an air handling unit , the heat recovery device comprising at least one first and one second counter-flow heat exchanger arranged to exchange energy between a first air stream and a second air stream , and further in connection to an inlet and outlet of said counter-flow heat exchangers are at least two air distributors arranged, and which air distributors are dimensionally coordinated with the inlet and outlet of the counter-flow heat exchangers , and which air distributors are arranged to distribute and guide the air to respective from the counter-flow heat exchangers to prevent mixing of the two air streams , wherein the height dimension (b) of the second counter-flow heat exchanger differs from the height dimension (a) of the first counter-flow heat exchanger , characterized in that at least the second counter-flow heat exchanger is arranged on top of the first counter-flow heat exchanger , and the sum of the height dimensions (a, b) of all counter-flow heat exchangers arranged on top of each other is almost equal with the interior height dimension (h) of the air handling unit .
A sealing arrangement for a building element comprising tension members , the sealing arrangement being arranged to seal off an internal part of the building element (107; 109), the sealing arrangement comprising: • a sealing pad of elastic material; and • a pressing element (505; 507) comprising a rigid layer, wherein the sealing pad and the pressing element (505; 507) are provided with holes for the tension members to pass through, and wherein, the sealing pad and the pressing element (505; 507) are pressed together, characterised in that the sealing arrangement further comprises a transition pad of deformable material, provided with holes for the tension members to pass through, wherein the sealing pad being compressed between the transition pad and the pressing element (505; 507), wherein the transition pad being arranged to support deviation forces and/or to dampen movements of the tension members . • a sealing pad of elastic material; and • a pressing element (505; 507) comprising a rigid layer,
A work cell for machining operations carried out via a laser head, comprising: - at least one working area designed to receive the pieces on which to carry out laser machining; and - a lateral covering and a top covering configured for separating at least partially said working area from the outside, wherein: - said work cell comprises an internal divider that defines, together with said lateral covering, a first working area and a second working area separated from one another by said divider; characterised in that said top covering is mobile selectively between a first position over said first working area , for protecting the underlying first working area and rendering, instead, accessible the second working area to the laser head ,and a second position over said second working area , for protecting the underlying second working area and rendering, instead, accessible the first working area to the laser head - at least one working area designed to receive the pieces on which to carry out laser machining; and - a lateral covering and a top covering configured for separating at least partially said working area from the outside, - said work cell comprises an internal divider that defines, together with said lateral covering, a first working area and a second working area separated from one another by said divider;
A method for transmitting digital data using a frequency divisional multiplexing method comprising the steps of - mapping the digital payload data to a block of payload symbols, said payload symbols being spread across at least two frequency bands and wherein at least two symbols being conveyed in at least one frequency band, and - applying a pulse shaping filter and a smoothing filter to the block of payload symbols thereby producing a pulse-shaped smoothed block of payload symbols , and - prepending a prefix spread across the at least two frequency bands to the block of pulse-shaped smoothed payload symbols by applying a prefix sub-matrix to the block of pulse-shaped smoothed payload symbols , and - appending a suffix to the block of pulse-shaped smoothed payload symbols by applying a suffix sub-matrix to the block of the pulse-shaped smoothed payload symbols , wherein a cross-correlation of the prefix and the reversed suffix or a cross-correlation of the reversed prefix and the suffix exhibits a pulse like signal upon exact match, and - transmitting the prefix , the block of payload symbols and the suffix : - mapping the digital payload data to a block of payload symbols, said payload symbols being spread across at least two frequency bands and wherein at least two symbols being conveyed in at least one frequency band, and - applying a pulse shaping filter and a smoothing filter to the block of payload symbols thereby producing a pulse-shaped smoothed block of payload symbols , and - prepending a prefix spread across the at least two frequency bands to the block of pulse-shaped smoothed payload symbols by applying a prefix sub-matrix to the block of pulse-shaped smoothed payload symbols , and - appending a suffix to the block of pulse-shaped smoothed payload symbols by applying a suffix sub-matrix to the block of the pulse-shaped smoothed payload symbols , wherein a cross-correlation of the prefix and the reversed suffix or a cross-correlation of the reversed prefix and the suffix exhibits a pulse like signal upon exact match, and - transmitting the prefix , the block of payload symbols and the suffix :
An interlayer film for laminated glass comprising at least two resin layers laminated together, the interlayer film having a large number of minute recesses having a groove shape with a continuous bottom and regularly arranged side by side and a large number of minute projections on at least one surface, the surface roughness (Rz) of which, measured by a method in conformity with JIS-B-0601 , is between 5 and 90 μm, the at least two resin layers including a first surface layer and a second surface layer and each containing a thermoplastic resin and a plasticizer, wherein, provided that the interlayer film is allowed to stand at 23°C and a humidity of 30%RH for three hours, and cut with a microtome at 23°C and a humidity of 30%RH in the horizontal direction of the interlayer film at a portion of 80 to 90 μm distant on the first surface layer side from the interface between the first surface layer and a resin layer contacting the interior side of the first surface layer and then at a portion of 50 μm distant from the cut face on the second surface layer side to prepare a resin film 1 having a thickness of 50 μm, the resin film 1 after standing at a temperature of 23°C and a humidity of 30%RH for three hours has a surface roughness (Rz) measured by a method in conformity with JIS B-0601 of less than 2.5 μm. the interlayer film having a large number of minute recesses having a groove shape with a continuous bottom and regularly arranged side by side and a large number of minute projections on at least one surface, the surface roughness (Rz) of which, measured by a method in conformity with JIS-B-0601 , is between 5 and 90 μm, the at least two resin layers including a first surface layer and a second surface layer and each containing a thermoplastic resin and a plasticizer, wherein, provided that the interlayer film is allowed to stand at 23°C and a humidity of 30%RH for three hours, and cut with a microtome at 23°C and a humidity of 30%RH in the horizontal direction of the interlayer film at a portion of 80 to 90 μm distant on the first surface layer side from the interface between the first surface layer and a resin layer contacting the interior side of the first surface layer and then at a portion of 50 μm distant from the cut face on the second surface layer side to prepare a resin film 1 having a thickness of 50 μm, the resin film 1 after standing at a temperature of 23°C and a humidity of 30%RH for three hours has a surface roughness (Rz) measured by a method in conformity with JIS B-0601 of less than 2.5 μm.
An imaging system comprising: an endoscope ; a first light source configured to provide illumination with a first light; a second light source (130, 130") configured to provide illumination with a second light; an imager configured to capture video from the endoscope; a first display area configured to display a live video image; and a second display area configured to display a still image, a control module configured to receive video data from the imager for processing the video data and transmit a video image and a still image, wherein the still image displayed in the second display area is taken en from the last frame of the video image prior to a first change between illumination with the first light and illumination with the second light, and characterized in that said second display area is updated to display a different still image after a subsequent change between illumination with the first light and illumination with the second light, said different still image is taken from the last frame of the video image prior to the subsequent change. an endoscope ; a first light source configured to provide illumination with a first light; a second light source (130, 130") configured to provide illumination with a second light; an imager configured to capture video from the endoscope; a first display area configured to display a live video image; and a second display area configured to display a still image, a control module configured to receive video data from the imager for processing the video data and transmit a video image and a still image, wherein the still image displayed in the second display area is taken en from the last frame of the video image prior to a first change between illumination with the first light and illumination with the second light, and characterized in that said second display area is updated to display a different still image after a subsequent change between illumination with the first light and illumination with the second light, said different still image is taken from the last frame of the video image prior to the subsequent change.
An endoscopic system comprising: an image sensor comprising a pixel array and configured to generate and read out pixel data for an image based on electromagnetic radiation received by the pixel array of the image sensor, wherein the pixel array comprises a plurality of lines for reading out pixel data, and wherein a time length for reading out all the plurality of lines of pixel data in the pixel array comprises a readout period; an emitter configured to emit electromagnetic radiation for illumination of a scene observed by the image sensor ; and an electromagnetic radiation driver configured to drive emissions by the emitter , wherein the electromagnetic radiation driver comprises a jitter specification that is less than or equal to 10% to 25% of the readout period of the pixel array of the image sensor . an image sensor comprising a pixel array and configured to generate and read out pixel data for an image based on electromagnetic radiation received by the pixel array of the image sensor, wherein the pixel array comprises a plurality of lines for reading out pixel data, and wherein a time length for reading out all the plurality of lines of pixel data in the pixel array comprises a readout period; an emitter configured to emit electromagnetic radiation for illumination of a scene observed by the image sensor ; and an electromagnetic radiation driver configured to drive emissions by the emitter , wherein the electromagnetic radiation driver comprises a jitter specification that is less than or equal to 10% to 25% of the readout period of the pixel array of the image sensor .
An outdoor unit of an air conditioner comprising: an axial fan ; a motor rotating the axial fan ; and a motor supporter (100; 200) supporting the motor , wherein the motor supporter (100; 200) includes deflection parts deflecting an air current sucked into the axial fan so as to have a rotating direction component of the axial fan , and at least one of the deflection parts includes a deflection surface having a designated angle from the axial direction of the axial fan to guide the sucked air current, wherein at least two air current contact surfaces of said deflection part contacting the sucked air current are convex toward the upstream side of the sucked air current, characterized in that each of said at least two air current contact surfaces includes: a forward facing surface facing the rotating direction of the axial fan ; and a backward facing surface facing the opposite direction to the rotating direction of the axial fan, wherein the deflection surface is formed on the forward facing surface, and the backward facing surface extends in parallel with an axial direction of the axial fan . an axial fan ; a motor rotating the axial fan ; and a motor supporter (100; 200) supporting the motor , wherein the motor supporter (100; 200) includes deflection parts deflecting an air current sucked into the axial fan so as to have a rotating direction component of the axial fan , and at least one of the deflection parts includes a deflection surface having a designated angle from the axial direction of the axial fan to guide the sucked air current, wherein at least two air current contact surfaces of said deflection part contacting the sucked air current are convex toward the upstream side of the sucked air current, characterized in that each of said at least two air current contact surfaces includes: a forward facing surface facing the rotating direction of the axial fan ; and a backward facing surface facing the opposite direction to the rotating direction of the axial fan, wherein the deflection surface is formed on the forward facing surface, and the backward facing surface extends in parallel with an axial direction of the axial fan . a forward facing surface facing the rotating direction of the axial fan ; and a backward facing surface facing the opposite direction to the rotating direction of the axial fan, wherein the deflection surface is formed on the forward facing surface, and the backward facing surface extends in parallel with an axial direction of the axial fan .
An engine , comprising: an engine block including a cylinder , the cylinder defining a front of the engine ; a blower housing coupled to the engine block and defining an interior cavity , a hot half positioned adjacent the front of the engine , and a cool half opposite the hot half; and an electric starting system positioned within the interior cavity , the electric starting system comprising: a starter mount assembly coupled to the blower housing ; an electric starter motor retained by the starter mount assembly and positioned in the cool half; and a battery mounted to the blower housing and positioned in the cool half, the battery electrically coupled to the electric starter motor , wherein the battery is integrated into the blower housing within the interior cavity , such that the battery is configured to be removed from the engine along with the blower housing during maintenance or installation. an engine block including a cylinder , the cylinder defining a front of the engine ; a blower housing coupled to the engine block and defining an interior cavity , a hot half positioned adjacent the front of the engine , and a cool half opposite the hot half; and an electric starting system positioned within the interior cavity , the electric starting system comprising: a starter mount assembly coupled to the blower housing ; an electric starter motor retained by the starter mount assembly and positioned in the cool half; and a battery mounted to the blower housing and positioned in the cool half, the battery electrically coupled to the electric starter motor , wherein the battery is integrated into the blower housing within the interior cavity , such that the battery is configured to be removed from the engine along with the blower housing during maintenance or installation. a starter mount assembly coupled to the blower housing ; an electric starter motor retained by the starter mount assembly and positioned in the cool half; and a battery mounted to the blower housing and positioned in the cool half, the battery electrically coupled to the electric starter motor , wherein the battery is integrated into the blower housing within the interior cavity , such that the battery is configured to be removed from the engine along with the blower housing during maintenance or installation.
A single chip vector magnetometer comprising an arrangement of thin-film magnetoresistive sensor elements, each comprising: a ferromagnetic free layer in which an intrinsic easy axis of a material of the ferromagnetic free layer is set perpendicular to the plane of the substrate onto which the ferromagnetic free layer is deposited; a ferromagnetic reference layer in which magnetization of the ferromagnetic reference layer is constrained to lie parallel to the plane of the substrate, the ferromagnetic reference layer comprising a ferromagnetic layer that is magnetically coupled to an antiferromagnetic layer, or comprising a ferromagnetic layer that has higher coercivity than the ferromagnetic free layer; and a spacer layer between said ferromagnetic free layer and ferromagnetic reference layer, wherein the spacer layer comprises either an insulating or a conducting material, characterized in that each sensor element is deposited on the same substrate, and the arrangement comprises sensor elements patterned into different shapes that have different sensitivities to magnetic fields applied along two or more oblique axes, and comprising an electronic system coupled to the sensor elements to deconvolute the response of the sensor elements into a coordinate system describing two or three orthogonal magnetic field directions. a ferromagnetic free layer in which an intrinsic easy axis of a material of the ferromagnetic free layer is set perpendicular to the plane of the substrate onto which the ferromagnetic free layer is deposited; a ferromagnetic reference layer in which magnetization of the ferromagnetic reference layer is constrained to lie parallel to the plane of the substrate, the ferromagnetic reference layer comprising a ferromagnetic layer that is magnetically coupled to an antiferromagnetic layer, or comprising a ferromagnetic layer that has higher coercivity than the ferromagnetic free layer; and a spacer layer between said ferromagnetic free layer and ferromagnetic reference layer, wherein the spacer layer comprises either an insulating or a conducting material, characterized in that each sensor element is deposited on the same substrate, and the arrangement comprises sensor elements patterned into different shapes that have different sensitivities to magnetic fields applied along two or more oblique axes, and comprising an electronic system coupled to the sensor elements to deconvolute the response of the sensor elements into a coordinate system describing two or three orthogonal magnetic field directions.
A filter assembly comprising: a cylindrical filter element housing having a central inlet at one end and an outlet on an opposite end; and an inside-out flow filter element coupled to the inlet having a lower endcap and an upper endcap assembly and filter media extending between the upper endcap assembly and the lower endcap , and wherein the upper endcap assembly includes an upper end cap , characterized in that the outlet is an angled peripheral outlet ; in that the upper endcap assembly further includes a diverter plate coupled to and spaced from an upper endcap of the upper end cap assembly with at least one vertical strut ; and in that the diverter plate is angled in the direction of the angled peripheral outlet in a centerline plane of the peripheral outlet . a cylindrical filter element housing having a central inlet at one end and an outlet on an opposite end; and an inside-out flow filter element coupled to the inlet having a lower endcap and an upper endcap assembly and filter media extending between the upper endcap assembly and the lower endcap , and wherein the upper endcap assembly includes an upper end cap , characterized in that the outlet is an angled peripheral outlet ; in that the upper endcap assembly further includes a diverter plate coupled to and spaced from an upper endcap of the upper end cap assembly with at least one vertical strut ; and in that the diverter plate is angled in the direction of the angled peripheral outlet in a centerline plane of the peripheral outlet .