mhurhangee/patent-ind-claim-en huggingface dataset:
An elongated device for restoring blood flow or removing thrombus, the elongated device being adapted to be advanced distally and withdrawn proximally from a proximal end and rotated about a longitudinal axis from the proximal end, the elongated device comprising: a working element comprising a first connection portion extending proximally, the first connection portion having a first attachment surface ; a pusher comprising a second connection portion extending distally, the second connection portion having a second attachment surface facing and extending longitudinally aligned to the first attachment surface to define an overlapping portion and to define first and second seams extending longitudinally along first and second lateral extents of the overlapping portion; a first weld attaching the first and second connection portions , extending from the first seam toward the second seam; and a second weld attaching the first and second connection portions , extending from the second seam toward the first seam. a working element comprising a first connection portion extending proximally, the first connection portion having a first attachment surface ; a pusher comprising a second connection portion extending distally, the second connection portion having a second attachment surface facing and extending longitudinally aligned to the first attachment surface to define an overlapping portion and to define first and second seams extending longitudinally along first and second lateral extents of the overlapping portion; a first weld attaching the first and second connection portions , extending from the first seam toward the second seam; and a second weld attaching the first and second connection portions , extending from the second seam toward the first seam.
A molded article comprising: a polycarbonate resin; an ultraviolet (UV) absorbing component; a heat stabilizer component; and a colorant, wherein the polycarbonate is a homopolymer comprising repeating units derived from bisphenol A, wherein the colorant is selected from the group consisting of 1,8-Bis((4-methylphenyl)amino) anthraquinone, 1,4-Bis((2,6-diethyl-4-methylphenyl)amino) anthraquinone, 1, 4-Bis(mesitylamino) anthraquinone, (29H,31H-phthalocyaninato(2-)copper, 6,15-Dihydroanthrazine-5,9,14,18-tetrone, and combinations thereof, wherein the molded article, when tested using a 2.5 mm color plaque, comprises a color difference delta E* (dE*) of less than 0.6 following molding under abusive molding conditions as compared to a reference article including the same components and same amounts of those components molded under standard processing conditions, and wherein the polycarbonate is produced by an interfacial polymerization process and has an endcap level of at least 95%, wherein the color difference is determined in accordance with the method disclosed in the specification, wherein standard processing conditions comprise a comprise a maximum molding temperature of 300°C at a residence time of 6 minutes, and wherein abusive molding conditions comprise a maximum molding temperature of at least 350°C at a residence time of at least 6 minutes. a polycarbonate resin; an ultraviolet (UV) absorbing component; a heat stabilizer component; and a colorant, wherein the polycarbonate is a homopolymer comprising repeating units derived from bisphenol A, wherein the colorant is selected from the group consisting of 1,8-Bis((4-methylphenyl)amino) anthraquinone, 1,4-Bis((2,6-diethyl-4-methylphenyl)amino) anthraquinone, 1, 4-Bis(mesitylamino) anthraquinone, (29H,31H-phthalocyaninato(2-)copper, 6,15-Dihydroanthrazine-5,9,14,18-tetrone, and combinations thereof, wherein the molded article, when tested using a 2.5 mm color plaque, comprises a color difference delta E* (dE*) of less than 0.6 following molding under abusive molding conditions as compared to a reference article including the same components and same amounts of those components molded under standard processing conditions, and wherein the polycarbonate is produced by an interfacial polymerization process and has an endcap level of at least 95%, wherein the color difference is determined in accordance with the method disclosed in the specification, wherein standard processing conditions comprise a comprise a maximum molding temperature of 300°C at a residence time of 6 minutes, and wherein abusive molding conditions comprise a maximum molding temperature of at least 350°C at a residence time of at least 6 minutes.
A screen module, comprising: an external screen , a first light blocking layer , a substrate , and a reflection layer that are disposed from outside to inside, wherein an imaging unit array is disposed on the substrate , the imaging unit array comprises a plurality of imaging units , and a photosensitive surface of the imaging unit is opposite to the reflection layer ; a first aperture array is disposed on the first light blocking layer , the first aperture array comprises a plurality of first apertures , and the first aperture is used to allow light reflected by an object outside the external screen to the reflection layer to pass through; and the reflection layer is configured to reflect, to the imaging unit , the light passing through the first aperture ; wherein a second light blocking layer is disposed between the substrate and the reflection layer , the second light blocking layer comprises a light transmission area array, and each light transmission area in the light transmission area array comprises a third aperture and a fourth aperture ; the third aperture is aligned with the first aperture , and the third aperture is used to allow the light passing through the first aperture to pass through; and the fourth aperture is used to allow the light reflected by the reflection layer to the imaging unit to pass through. an external screen , a first light blocking layer , a substrate , and a reflection layer that are disposed from outside to inside, wherein an imaging unit array is disposed on the substrate , the imaging unit array comprises a plurality of imaging units , and a photosensitive surface of the imaging unit is opposite to the reflection layer ; a first aperture array is disposed on the first light blocking layer , the first aperture array comprises a plurality of first apertures , and the first aperture is used to allow light reflected by an object outside the external screen to the reflection layer to pass through; and the reflection layer is configured to reflect, to the imaging unit , the light passing through the first aperture ; wherein a second light blocking layer is disposed between the substrate and the reflection layer , the second light blocking layer comprises a light transmission area array, and each light transmission area in the light transmission area array comprises a third aperture and a fourth aperture ; the third aperture is aligned with the first aperture , and the third aperture is used to allow the light passing through the first aperture to pass through; and the fourth aperture is used to allow the light reflected by the reflection layer to the imaging unit to pass through.
Sensor , in particular for a motor vehicle, comprising: - a substrate , in particular a printed circuit board or a ceramic support, - a measurement probe electrically connected, in particular by brazing, to the substrate, the substrate comprising at least one opening and the measurement probe being arranged at least partially in said opening , and comprising a sensitive element , characterized in that the measurement probe comprises: two legs connected to the sensitive element, these legs being coplanar, and each comprising an electrical connection portion, the connection legs each comprising a rectilinear portion connecting to the associated connection portion, the rectilinear portions being parallel to one another, the rectilinear portion and the connection portion of each leg forming an angle substantially equal to 90° between them, these connection portions being arranged in a collinear manner. - a substrate , in particular a printed circuit board or a ceramic support, - a measurement probe electrically connected, in particular by brazing, to the substrate, the substrate comprising at least one opening and the measurement probe being arranged at least partially in said opening , and comprising a sensitive element , characterized in that the measurement probe comprises: two legs connected to the sensitive element, these legs being coplanar, and each comprising an electrical connection portion, the connection legs each comprising a rectilinear portion connecting to the associated connection portion, the rectilinear portions being parallel to one another, the rectilinear portion and the connection portion of each leg forming an angle substantially equal to 90° between them, these connection portions being arranged in a collinear manner.
A silicon based alloy comprising between 50 and 95 % by weight of Si; max 0.05 % by weight of C; 0.01-10 % by weight of Al; 0.01-0.3 % by weight of Ca; max 0.10 % by weight of Ti; 1-25 % by weight of Mn; 0.005-0.07 % by weight of P; 0.001-0.005 % by weight of S; the balance being Fe and incidental impurities in the ordinary amount. between 50 and 95 % by weight of Si; max 0.05 % by weight of C; 0.01-10 % by weight of Al; 0.01-0.3 % by weight of Ca; max 0.10 % by weight of Ti; 1-25 % by weight of Mn; 0.005-0.07 % by weight of P; 0.001-0.005 % by weight of S;
A method of making a fire-resistant wide-meshed grid comprising the following steps : - providing a poly(vinyl chloride) (PVC) plastisol, - providing a polyester yarn mesh fabric, - coating the polyester yarn mesh fabric with the PVC plastisol, - heating the coated fabric for about 5 to 20 minutes, more preferably for about 5 to 15 minutes, to a temperature comprised between 110 °C and 150 °C, so as to effect gelatinization of the PVC plastisol and form a plasticized PVC coating enveloping the polyester yarns of the mesh fabric, wherein the PVC plastisol, comprises (a) a poly(vinyl chloride) base resin, (b) from 60 to 140 phr of a primary plasticizer which is tris-(2-chloroisopropyl)phosphate (TCPP), (c) from 40 to 140 phr of a secondary plasticizer, (d) from 145 to 230 phr of an inorganic filler. - providing a poly(vinyl chloride) (PVC) plastisol, - providing a polyester yarn mesh fabric, - coating the polyester yarn mesh fabric with the PVC plastisol, - heating the coated fabric for about 5 to 20 minutes, more preferably for about 5 to 15 minutes, to a temperature comprised between 110 °C and 150 °C, so as to effect gelatinization of the PVC plastisol and form a plasticized PVC coating enveloping the polyester yarns of the mesh fabric, (a) a poly(vinyl chloride) base resin, (b) from 60 to 140 phr of a primary plasticizer which is tris-(2-chloroisopropyl)phosphate (TCPP), (c) from 40 to 140 phr of a secondary plasticizer, (d) from 145 to 230 phr of an inorganic filler.
A draper belt comprising a carry layer , a pulley cover layer , and a reinforcing layer which is situated between the carry layer and the pulley cover layer , wherein the draper belt has a first edge and a second edge , wherein the carry layer includes a plurality of cleats which run from the first edge to the second edge of the draper belt , and wherein the cleats are reinforced with reinforcing rods , characterized in that the reinforcing rods are adhered to the cleats by: - coating steel cord with brass and applying a rubber to the cord; and, - pressing the coated cord and rubber compound into a series of rollers until the cord is adhered to the rubber; wherein the reinforcing rods are comprised of the coated steel cord and the cleats are comprised of the rubber. - coating steel cord with brass and applying a rubber to the cord; and, - pressing the coated cord and rubber compound into a series of rollers until the cord is adhered to the rubber;
A medical device (500; 900; 1000) for treating a cancerous tumor comprising: a first lead (502; 902) comprising a first wire (504; 904) and a second wire (506; 906); a second lead (508; 908) comprising a third wire (510; 910) and a fourth wire (512; 912); a first electrode (514; 914) in electrical communication with the first wire (504; 904), a second electrode (516; 916) in electrical communication with the second wire (506; 906), a third electrode (518; 918) in electrical communication with the third wire (510; 910), and a fourth electrode (520; 920) in electrical communication with the fourth wire (512; 912); wherein the first electrode (514; 914) and the third electrode (518; 918) form a supply electrode pair configured to deliver one or more electric fields at or near a site of the cancerous tumor ; and wherein the second electrode (516; 916) and the fourth electrode (520; 920) form a sensing electrode pair configured to measure an impedance (524; 824) of the cancerous tumor independent of an impedance of the first electrode (514; 914), the first wire (504; 904), the third electrode (518; 918), the third wire (510; 910), and components in electrical communication therewith. a first lead (502; 902) comprising a first wire (504; 904) and a second wire (506; 906); a second lead (508; 908) comprising a third wire (510; 910) and a fourth wire (512; 912); a first electrode (514; 914) in electrical communication with the first wire (504; 904), a second electrode (516; 916) in electrical communication with the second wire (506; 906), a third electrode (518; 918) in electrical communication with the third wire (510; 910), and a fourth electrode (520; 920) in electrical communication with the fourth wire (512; 912); wherein the first electrode (514; 914) and the third electrode (518; 918) form a supply electrode pair configured to deliver one or more electric fields at or near a site of the cancerous tumor ; and wherein the second electrode (516; 916) and the fourth electrode (520; 920) form a sensing electrode pair configured to measure an impedance (524; 824) of the cancerous tumor independent of an impedance of the first electrode (514; 914), the first wire (504; 904), the third electrode (518; 918), the third wire (510; 910), and components in electrical communication therewith.
A computerized method of characterizing a geological region of interest divided into a plurality of bins (i,j) for a time-lapse survey, the method comprising: - providing a data set comprising data obtained by seismic imaging of the region of interest during an observation period (T), said data set comprising, for each bin of the region of interest, data related to emission signal, reception signal, and signal geometry, wherein signal geometry comprises data related to location of emission of the emission signal, location of reception of the reception signal, and estimated location of reflection by earth of the emission signal, characterized in that the method further comprises : - for each bin (i,j) of the region of interest, comparing reception signals (G 0 , ..., G 6 ) for neighbour bins to estimate a distance (L coh ) representing a difference in geometry for which a difference in reception signals between bins is over a predetermined threshold. - providing a data set comprising data obtained by seismic imaging of the region of interest during an observation period (T), said data set comprising, for each bin of the region of interest, data related to emission signal, reception signal, and signal geometry, wherein signal geometry comprises data related to location of emission of the emission signal, location of reception of the reception signal, and estimated location of reflection by earth of the emission signal, characterized in that the method further comprises : - for each bin (i,j) of the region of interest, comparing reception signals (G 0 , ..., G 6 ) for neighbour bins to estimate a distance (L coh ) representing a difference in geometry for which a difference in reception signals between bins is over a predetermined threshold. - for each bin (i,j) of the region of interest, comparing reception signals (G 0 , ..., G 6 ) for neighbour bins to estimate a distance (L coh ) representing a difference in geometry for which a difference in reception signals between bins is over a predetermined threshold.
Lowerable floor seal consisting of a downwardly open seal housing having a sealing profile mounted movably therein and having side walls and, connecting the latter, a central piece from the outer side of which, and over the length of the seal housing , there outwardly extend profiled blades provided in pairs with opposed undercuts , and consisting of a holding rail having a flat contact side for a gore leaf and having rear-engagement elements which are opposed in pairs to the undercuts of the profiled blades of the seal housing , wherein, in the mounted state, the profiled blades and the rear-engagement elements engage behind one another, characterized in that at least one further pair of profiled blades or of rear-engagement elements is integrally formed on the central piece and/or holding rail , parallel to the first pair, in such a way that the undercuts of the profiled blades and/or of the rear-engagement elements that are directed in the same direction are arranged next to one another with a spacing, and in that the gaps between two adjacent profiled blades or rear-engagement elements of the same orientation are wider than these profiled blades or rear-engagement elements .
A pad changer to replace a pad mounted to a cleaner , comprising: a replacement unit including a separation cartridge to separate the pad from the cleaner when the cleaner is in a fixed position relative to the pad changer and receive the separated pad therein, and a mounting cartridge to receive a pad therein and mount the pad to the cleaner while the cleaner is still in said fixed position relative to the pad changer .
An apparatus comprising: a window glass having a film with variable transparency; a pair of electrodes connected to the film ; a controller mounted on a vehicle door of a vehicle, the controller controlling a wireless transfer of power for adjusting the transparency of the film ; and a wireless power receiver mounted on the window glass, the wireless power receiver wirelessly receiving the power from the controller , wherein the wireless power receiver applies the power wirelessly received from the controller to the pair of electrodes ; and wherein the controller includes an alternating current (AC) inverter circuit converting direct current (DC) power supplied from a battery into AC power required for power transmission, a transmitting coil wirelessly transmitting the power to the wireless power receiver by electromagnetic induction, and a power transmission control module controlling an operation of the AC inverter circuit and a power level to be output from the AC inverter circuit according to a transparency control signal, characterized in that the power transmission control module adjusts an amplitude of AC voltage output from the AC inverter circuit according to a transparency control signal to thereby control an output power level of the AC inverter circuit . a window glass having a film with variable transparency; a pair of electrodes connected to the film ; a controller mounted on a vehicle door of a vehicle, the controller controlling a wireless transfer of power for adjusting the transparency of the film ; and a wireless power receiver mounted on the window glass, the wireless power receiver wirelessly receiving the power from the controller , wherein the wireless power receiver applies the power wirelessly received from the controller to the pair of electrodes ; and wherein the controller includes an alternating current (AC) inverter circuit converting direct current (DC) power supplied from a battery into AC power required for power transmission, a transmitting coil wirelessly transmitting the power to the wireless power receiver by electromagnetic induction, and a power transmission control module controlling an operation of the AC inverter circuit and a power level to be output from the AC inverter circuit according to a transparency control signal, characterized in that the power transmission control module adjusts an amplitude of AC voltage output from the AC inverter circuit according to a transparency control signal to thereby control an output power level of the AC inverter circuit .
A method for monitoring an injector for common-rail injection systems, comprising: - providing a head plate having formed therein a calibrated inlet orifice and a calibrated outlet orifice connected to a control chamber through respective holes formed in the head plate , wherein said holes are open on a reaction surface of the head plate facing the control chamber , wherein the control chamber is delimited partly by a head surface of an injector needle and partly by said reaction surface of said head plate , wherein the head surface of the injector needle in the open position of the injector needle abuts against said reaction surface , and wherein a blind hole is formed in the head plate , said blind hole forming a portion of the head plate with reduced thickness, wherein the head plate comprises an integral diaphragm formed between a first surface consisting of a portion of the reaction surface in direct contact with the pressurized fluid contained in the hydraulic chamber and a second surface opposite the first surface, located at the bottom of the blind hole , which is not in contact with the pressurized fluid contained in the hydraulic chamber , and - providing a sensor housed in said blind hole formed in the head plate and isolated from the control chamber of the injector by said diaphragm , which supplies an electrical signal indicative of the deformations of said diaphragm , and - processing said electrical signal (V) to determine characteristic data of the injector operation . - providing a head plate having formed therein a calibrated inlet orifice and a calibrated outlet orifice connected to a control chamber through respective holes formed in the head plate , wherein said holes are open on a reaction surface of the head plate facing the control chamber , wherein the control chamber is delimited partly by a head surface of an injector needle and partly by said reaction surface of said head plate , wherein the head surface of the injector needle in the open position of the injector needle abuts against said reaction surface , and wherein a blind hole is formed in the head plate , said blind hole forming a portion of the head plate with reduced thickness, wherein the head plate comprises an integral diaphragm formed between a first surface consisting of a portion of the reaction surface in direct contact with the pressurized fluid contained in the hydraulic chamber and a second surface opposite the first surface, located at the bottom of the blind hole , which is not in contact with the pressurized fluid contained in the hydraulic chamber , and - providing a sensor housed in said blind hole formed in the head plate and isolated from the control chamber of the injector by said diaphragm , which supplies an electrical signal indicative of the deformations of said diaphragm , and - processing said electrical signal (V) to determine characteristic data of the injector operation .