mhurhangee/ep-ind-claims huggingface dataset:
A reinforcing material for use with a thermoplastic resin, the reinforcing material comprising: coated glass flakes; and coated glass strands, wherein each of the coated glass strands includes a plurality of glass filaments and a coating formed on the glass filaments, the glass flakes have a thickness of 0.1 to 4.0 μm, the glass flakes have an average particle diameter of 10 to 800 μm, the coatings on the glass flakes contain a glycidyl group-including resin selected from the group consisting of a bisphenol A epoxy resin, a phenol novolac epoxy resin, an O-cresol novolac epoxy resin, and a hydrogenated bisphenol A epoxy resin, and aminosilane, the coatings on the glass flakes contain the glycidyl group-including resin in an amount of 30% to 95% by mass when a total amount of the glycidyl group-including resin and the aminosilane corresponds to 100% by mass, the coated glass flakes have an ignition loss of 0.1% to 2.0% by mass measured pursuant to JIS R3420, the coatings on the glass filaments contain a glycidyl group-including resin, aminosilane, and a urethane resin, the coatings on the glass filaments contain the glycidyl group-including resin in an amount of 10% to 90% by mass, the aminosilane in an amount of 0.1% to 40% by mass, and the urethane resin in an amount of 1% to 50% by mass when a total amount of the glycidyl group-including resin, the aminosilane, and the urethane resin corresponds to 100% by mass, and the coated glass strands have an ignition loss of 0.1% to 2.0% by mass measured pursuant to JIS R3420. coated glass flakes; and coated glass strands, wherein each of the coated glass strands includes a plurality of glass filaments and a coating formed on the glass filaments, the glass flakes have a thickness of 0.1 to 4.0 μm, the glass flakes have an average particle diameter of 10 to 800 μm, the coatings on the glass flakes contain a glycidyl group-including resin selected from the group consisting of a bisphenol A epoxy resin, a phenol novolac epoxy resin, an O-cresol novolac epoxy resin, and a hydrogenated bisphenol A epoxy resin, and aminosilane, the coatings on the glass flakes contain the glycidyl group-including resin in an amount of 30% to 95% by mass when a total amount of the glycidyl group-including resin and the aminosilane corresponds to 100% by mass, the coated glass flakes have an ignition loss of 0.1% to 2.0% by mass measured pursuant to JIS R3420, the coatings on the glass filaments contain a glycidyl group-including resin, aminosilane, and a urethane resin, the coatings on the glass filaments contain the glycidyl group-including resin in an amount of 10% to 90% by mass, the aminosilane in an amount of 0.1% to 40% by mass, and the urethane resin in an amount of 1% to 50% by mass when a total amount of the glycidyl group-including resin, the aminosilane, and the urethane resin corresponds to 100% by mass, and the coated glass strands have an ignition loss of 0.1% to 2.0% by mass measured pursuant to JIS R3420.
A selectively metallized heat transfer label for application to a substrate comprising: a carrier layer; a release layer applied to the carrier layer; a protective layer applied to the release layer; a metallizable layer applied to the protective layer; a metal layer applied to the metallizable layer; a metal transferring adhesive layer applied to a first portion of the metal layer; and a non-metal transferring ink layer applied to a second portion of the metal layer; wherein the metal transferring adhesive layer is configured to adhere to the metal layer upon application of heat and pressure to the label and wherein the non-metal transferring ink layer is configured to not adhere to the metal layer upon application of heat and pressure to the label. a carrier layer; a release layer applied to the carrier layer; a protective layer applied to the release layer; a metallizable layer applied to the protective layer; a metal layer applied to the metallizable layer; a metal transferring adhesive layer applied to a first portion of the metal layer; and a non-metal transferring ink layer applied to a second portion of the metal layer; wherein the metal transferring adhesive layer is configured to adhere to the metal layer upon application of heat and pressure to the label and wherein the non-metal transferring ink layer is configured to not adhere to the metal layer upon application of heat and pressure to the label.
A method for mitigating or preventing corrosion of metal, the method comprising adding an additive to a system wherein: the system has both O 2 and CO 2 present; or the system is at an alkaline pH and has both O 2 and CO 2 present; and wherein the additive comprises a quaternary aromatic amine that is a quaternary pyridine or quaternary quinoline, and a synergistic combinant selected from the group consisting of propargyl alcohol, 2-methyl-3-butyn-2-ol, butyne and diol, 1-butyne-1-ol, bis-2(-mercapto-1-methylpropyl) sulfide, 2-mercaptoethyl sulfide, 2-mercaptoethyl ether, 1,5-pentane dithiol, and combinations thereof; and wherein the system is a system for capturing and sequestering CO 2 produced from fossil fuels; and the system is utilized to convey or retain combustion gases. the system has both O 2 and CO 2 present; or the system is at an alkaline pH and has both O 2 and CO 2 present; and wherein the additive comprises a quaternary aromatic amine that is a quaternary pyridine or quaternary quinoline, and a synergistic combinant selected from the group consisting of propargyl alcohol, 2-methyl-3-butyn-2-ol, butyne and diol, 1-butyne-1-ol, bis-2(-mercapto-1-methylpropyl) sulfide, 2-mercaptoethyl sulfide, 2-mercaptoethyl ether, 1,5-pentane dithiol, and combinations thereof; and wherein the system is a system for capturing and sequestering CO 2 produced from fossil fuels; and the system is utilized to convey or retain combustion gases.
A blood collection device comprising: a cannula hub defining a chamber; an inlet cannula defining an axis and having a distal end and a lumen extending therethrough, the inlet cannula being mounted to the cannula hub such that the distal end of the inlet cannula is external of the cannula hub and such that the lumen through the inlet cannula communicates with the chamber; an outlet cannula having a proximal end and a lumen extending therethorugh, the outlet cannula being mounted to the cannula hub such that the proximal end of the outlet cannula is external of the cannula hub and such that the lumen of the outlet cannula communicates with the chamber; a closed sleeve mounted over a portion of the cannula (12, 14) disposed externally of the cannula hub; and a venting mechanism providing communication between the chamber and ambient surroundings; wherein the venting mechanism comprises a tubular insert defining a fluid passage therethrough and a membrane extending across the fluid passage, wherein the membrane is made from a material permeable for air and impermeable for blood; characterized in that the tubular insert is received in a tubular projection extending from the cannula hub such that the end of the tubular insert facing towards the flashback chamber abuts on an inner collar when the tubular insert is fully inserted into the tubular projection, whereby the inner collar is provided in the transition region from the tubular projection to the flashback chamber. a cannula hub defining a chamber; an inlet cannula defining an axis and having a distal end and a lumen extending therethrough, the inlet cannula being mounted to the cannula hub such that the distal end of the inlet cannula is external of the cannula hub and such that the lumen through the inlet cannula communicates with the chamber; an outlet cannula having a proximal end and a lumen extending therethorugh, the outlet cannula being mounted to the cannula hub such that the proximal end of the outlet cannula is external of the cannula hub and such that the lumen of the outlet cannula communicates with the chamber; a closed sleeve mounted over a portion of the cannula (12, 14) disposed externally of the cannula hub; and a venting mechanism providing communication between the chamber and ambient surroundings; wherein the venting mechanism comprises a tubular insert defining a fluid passage therethrough and a membrane extending across the fluid passage, wherein the membrane is made from a material permeable for air and impermeable for blood; characterized in that the tubular insert is received in a tubular projection extending from the cannula hub such that the end of the tubular insert facing towards the flashback chamber abuts on an inner collar when the tubular insert is fully inserted into the tubular projection, whereby the inner collar is provided in the transition region from the tubular projection to the flashback chamber.
A semiconductor device (500c, 600, 700, 800, 900, 1000a, 1000b, 1100a, 1100b, 1100c) comprising: a p-type substrate (502, 602, 702, 802, 902, 1002) having a first surface; a p-type well (516, 616, 716, 816, 908, 1016, 1116) extending from the first surface into the p-type substrate (502, 602, 702, 802, 902); an n-type well (504, 604, 704, 804, 904, 1004, 1104) extending from the first surface into the p-type substrate to define a depletion region (506, 606, 706, 806) in the p-type substrate around the n-type well and extending so as to reach the p-type well; an insulating layer (540, 640, 740, 840) extending over the first surface of the p-type substrate from the n-type well to the p-type well to define an inversion layer (542, 642, 742, 842) in the substrate; said inversion layer extending between the n-type well and the p-type well; wherein a p-type floating channel stopper (570, 670, 770, 870, 1070, 1170) is provided and configured to extend through the inversion layer to reduce electrical coupling between the n-type well and at least part of the inversion layer, and is electrically disconnected from a remainder of the p-type substrate outside of the depletion region. a p-type substrate (502, 602, 702, 802, 902, 1002) having a first surface; a p-type well (516, 616, 716, 816, 908, 1016, 1116) extending from the first surface into the p-type substrate (502, 602, 702, 802, 902); an n-type well (504, 604, 704, 804, 904, 1004, 1104) extending from the first surface into the p-type substrate to define a depletion region (506, 606, 706, 806) in the p-type substrate around the n-type well and extending so as to reach the p-type well; an insulating layer (540, 640, 740, 840) extending over the first surface of the p-type substrate from the n-type well to the p-type well to define an inversion layer (542, 642, 742, 842) in the substrate; said inversion layer extending between the n-type well and the p-type well; wherein a p-type floating channel stopper (570, 670, 770, 870, 1070, 1170) is provided and configured to extend through the inversion layer to reduce electrical coupling between the n-type well and at least part of the inversion layer, and is electrically disconnected from a remainder of the p-type substrate outside of the depletion region.
A method of reducing a likelihood of thermal shock in an electrochromic window (300, 400, 520), wherein the electrochromic window (300, 400, 520) is controllably tintable and in communication with a controller configured to send signals to the electrochromic window (300, 400, 520) to change tint states, the method comprising: determining that a trigger condition likely to induce thermal shock in the electrochromic window (300, 400, 520) in a first tint state at a particular time, wherein the trigger condition is a rapid change in radiation flux striking the window (300, 400, 520), a rapid change in ambient temperature on an exterior side of the window (300, 400, 520), or a pre-determined temperature difference between the environment proximate one face of the electrochromic window (300, 400, 520) and the environment proximate the other face of the electrochromic window (300, 400, 520), and wherein the particular time is either at or about sunrise, or, at or near a predicted change in weather conditions; and in response to the determination, sending a signal from the controller to the electrochromic window (300, 400, 520) to place the electrochromic window (300, 400, 520) in a second tint state that reduces the likelihood that the trigger condition induces thermal shock. determining that a trigger condition likely to induce thermal shock in the electrochromic window (300, 400, 520) in a first tint state at a particular time, wherein the trigger condition is a rapid change in radiation flux striking the window (300, 400, 520), a rapid change in ambient temperature on an exterior side of the window (300, 400, 520), or a pre-determined temperature difference between the environment proximate one face of the electrochromic window (300, 400, 520) and the environment proximate the other face of the electrochromic window (300, 400, 520), and wherein the particular time is either at or about sunrise, or, at or near a predicted change in weather conditions; and in response to the determination, sending a signal from the controller to the electrochromic window (300, 400, 520) to place the electrochromic window (300, 400, 520) in a second tint state that reduces the likelihood that the trigger condition induces thermal shock.
Electromagnetic brake having a housing body, a friction disk, and at least one compression spring provided in the housing body, wherein the friction disk is connected to the housing body in the manner of a bayonet lock, wherein the friction disk is secured against rotation relative to the housing body, characterized in that the friction disk is secured against rotation relative to the housing body by means of at least one locking element, and the locking element is a connecting element which is used for attaching the electromagnetic brake to a component.
A warewash machine for washing wares, comprising: - a chamber for receiving wares, the chamber having at least one wash zone; - a waste heat recovery unit arranged to transfer heat from exhaust air of the machine to incoming water traveling along a water flow path through the waste heat recovery unit to a booster heater of the machine; - a refrigerant medium circuit including at least a first condenser arranged to deliver refrigerant medium heat to the incoming water; characterized by a control arrangement for monitoring subcooled refrigerant medium condition and for responsively modifying operation of one or more of: (i) speed of a compressor of the refrigerant medium circuit, (ii) speed of an exhaust fan that causes air flow across the waste heat recovery unit or (iii) speed of a pump that controls incoming water flow along the water flow path. - a chamber for receiving wares, the chamber having at least one wash zone; - a waste heat recovery unit arranged to transfer heat from exhaust air of the machine to incoming water traveling along a water flow path through the waste heat recovery unit to a booster heater of the machine; - a refrigerant medium circuit including at least a first condenser arranged to deliver refrigerant medium heat to the incoming water; (i) speed of a compressor of the refrigerant medium circuit, (ii) speed of an exhaust fan that causes air flow across the waste heat recovery unit or (iii) speed of a pump that controls incoming water flow along the water flow path.
Computer implemented method for localizing an occupant within a vehicle, the method comprising: - identifying whether at least one occupant is present within the vehicle based on a signal of an ultrasonic sensor, - determining information regarding inclination of the vehicle based on at least one signal (41, 43) of an inclination sensor, - determining whether the occupant is present in one of a plurality of predefined sections of the vehicle based on the information regarding inclination of the vehicle if the presence of at least one occupant within the vehicle is identified. - identifying whether at least one occupant is present within the vehicle based on a signal of an ultrasonic sensor, - determining information regarding inclination of the vehicle based on at least one signal (41, 43) of an inclination sensor, - determining whether the occupant is present in one of a plurality of predefined sections of the vehicle based on the information regarding inclination of the vehicle if the presence of at least one occupant within the vehicle is identified.
A spun yarn take-up apparatus (1A, 1B, 1C) comprising a spun yarn take-up unit for taking up and at least drawing a plurality of yarns spun from a spinning machine, a plurality of yarn suctioning units (4, 4A-4L) capable of suctioning the plurality of yarns, respectively, and a spooling unit for winding the plurality of yarns delivered from the spun yarn take-up unit to form a wound package, wherein the spun yarn take-up unit includes: a first guide section, arranged below the plurality of yarn suctioning units (4, 4A-4L), including a plurality of direction-changing rollers (10A-10L) for changing traveling directions of the plurality of yarns, respectively; a drawing section (28, 28A) including a plurality of rollers (31-34, 41-44, 51-58) having at least one roller for drawing the plurality of yarns guided by the first guide section; and a second guide section for guiding the plurality of yarns from the drawing section (28, 28A) to the spooling unit, and wherein the drawing section (28, 28A) is arranged at substantially the same height as that of the spooling unit, and the first guide section is arranged above at least one roller of the drawing section (28, 28A), a first yarn delivery roller is provided on a yarn path from the plurality of direction-changing rollers (10A-10L) to the drawing section (28, 28A), and the first yarn delivery roller is arranged below the plurality of yarn suctioning units (4, 4A-4L) and separated in a horizontal direction from the first guide section and the drawing section (28, 28A). a first guide section, arranged below the plurality of yarn suctioning units (4, 4A-4L), including a plurality of direction-changing rollers (10A-10L) for changing traveling directions of the plurality of yarns, respectively; a drawing section (28, 28A) including a plurality of rollers (31-34, 41-44, 51-58) having at least one roller for drawing the plurality of yarns guided by the first guide section; and a second guide section for guiding the plurality of yarns from the drawing section (28, 28A) to the spooling unit, and wherein the drawing section (28, 28A) is arranged at substantially the same height as that of the spooling unit, and the first guide section is arranged above at least one roller of the drawing section (28, 28A), a first yarn delivery roller is provided on a yarn path from the plurality of direction-changing rollers (10A-10L) to the drawing section (28, 28A), and the first yarn delivery roller is arranged below the plurality of yarn suctioning units (4, 4A-4L) and separated in a horizontal direction from the first guide section and the drawing section (28, 28A).
A device (10, 10') for bonding a first substrate surface of a first substrate to a second substrate surface of a second substrate, having: - a first substrate holder (6o, 6o') for accommodating the first substrate, - a second substrate holder (6u, 6u') for accommodating the second substrate, characterized in that at least the first substrate holder (6o, 6o') has a first recess with a fixing device for fixing the first substrate in the first recess, as well as an elevation at least partly surrounding the recess, wherein the recess and/or the elevation is/are adapted to the first substrate in particular to the shape of the first substrate, in such a manner that the substrate surface with the expansion surface forms a substantially continuous surface and/or merges into the elevation, wherein a first distance (ho) between a substrate periphery of the first substrate and an inner wall of the elevation is smaller than 1 mm, wherein a second distance (vo) between the first substrate surface and the expansion surface is smaller than 1 mm. - a first substrate holder (6o, 6o') for accommodating the first substrate, - a second substrate holder (6u, 6u') for accommodating the second substrate, characterized in that at least the first substrate holder (6o, 6o') has a first recess with a fixing device for fixing the first substrate in the first recess, as well as an elevation at least partly surrounding the recess, wherein the recess and/or the elevation is/are adapted to the first substrate in particular to the shape of the first substrate, in such a manner that the substrate surface with the expansion surface forms a substantially continuous surface and/or merges into the elevation, wherein a first distance (ho) between a substrate periphery of the first substrate and an inner wall of the elevation is smaller than 1 mm, wherein a second distance (vo) between the first substrate surface and the expansion surface is smaller than 1 mm.
A method for inputting data in a multimedia service database on an embedded device, comprising: when multimedia file scanning is performed, storing generated directory information of a multimedia file in a random access memory database RAM-DB, and performing a RAM-DB to backup database BAK-DB data backup operation in a scanning process; and if an interruption occurs in the scanning process, and when the scanning continues after the scanning interruption ends, copying data in a BAK-DB to the RAM-DB, and continuing to scan, according to existing data in the RAM-DB, a multimedia file that is not scanned. when multimedia file scanning is performed, storing generated directory information of a multimedia file in a random access memory database RAM-DB, and performing a RAM-DB to backup database BAK-DB data backup operation in a scanning process; and if an interruption occurs in the scanning process, and when the scanning continues after the scanning interruption ends, copying data in a BAK-DB to the RAM-DB, and continuing to scan, according to existing data in the RAM-DB, a multimedia file that is not scanned.
A compensating damper comprising opposed working end faces, a hermetically sealed chamber between the working end faces, a plurality of viscous fluid films separated by a set of plates disposed in the chamber between the working end faces, characterized in that each viscous fluid film belongs to one of at least two different film thickness zones disposed across the set of plates, each of the different film thickness zones providing a different resistance response when acted upon by an outside force exerted on at least one of said opposed working end faces.