mhurhangee/patent-ind-claim-en huggingface dataset:
Hand held device for applying a liquid to a plant structure such as a leaf, the hand held device having tongs structure comprising: - at least two legs connected at a base terminus, and providing an open end for clamping a targeted part of a plant structure between said tongs leg working ends; - at least one of said legs having a reservoir or being in fluid connection with an external to the hand held device arranged reservoir; - application means affixed to at least one of said tongs leg working ends; - at least one of said application means is in fluid communication with said reservoir of application liquid, characterized by that tactile valve function means is placed between said reservoir and said application means or is integrated into or protruding on the surface of said application means and where the tactile valve function means further includes opening means arranged in such a way that when the tongs leg working ends are being clamped together, the opening means are configured to open the valve so as to provide an opening for the flow of liquid out of the reservoir through the valve and where the opening means are arranged in such a way that when the tongs leg working ends are not being clamped together, the opening means are configured to close the valve. - at least two legs connected at a base terminus, and providing an open end for clamping a targeted part of a plant structure between said tongs leg working ends; - at least one of said legs having a reservoir or being in fluid connection with an external to the hand held device arranged reservoir; - application means affixed to at least one of said tongs leg working ends; - at least one of said application means is in fluid communication with said reservoir of application liquid,
A method for calibrating a display, the display comprising an array of evenly spaced individually-controllable LEDs coupled to a controller, each of the individually-controllable LEDs being configured to emit light when supplied with electrical power under control of the controller in response to image data, the method comprising: (a) controlling the LEDs such that that a first one thereof does not emit light and second and third ones thereof, which are the same distance from the first LED, emit light at second and third intensities, respectively; (b) using the first LED to detect the second and third intensities; (c) calibrating the second and third LEDs so that the detected second and third intensities are the same; (d) subsequently, controlling the LEDs such that a fourth one thereof does not emit light and the second and a fifth one thereof, which are the same distance from the fourth LED, emit light at second and fifth intensities, respectively; (e) using the fourth LED to detect the second and fifth intensities; and (f) calibrating the fifth LED so that the detected second and fifth intensities are the same, wherein the method is carried out over the entire LED array to thereby make the LEDs emit uniformly. (a) controlling the LEDs such that that a first one thereof does not emit light and second and third ones thereof, which are the same distance from the first LED, emit light at second and third intensities, respectively; (b) using the first LED to detect the second and third intensities; (c) calibrating the second and third LEDs so that the detected second and third intensities are the same; (d) subsequently, controlling the LEDs such that a fourth one thereof does not emit light and the second and a fifth one thereof, which are the same distance from the fourth LED, emit light at second and fifth intensities, respectively; (e) using the fourth LED to detect the second and fifth intensities; and (f) calibrating the fifth LED so that the detected second and fifth intensities are the same,
A battery state estimating apparatus , comprising: an offset and variance calculation unit configured to calculate a voltage offset and a voltage variance based on a voltage value of a battery obtained during a predetermined period and calculate a current offset and a current variance based on a current value of the battery obtained during the predetermined period; a system noise calculation unit configured to calculate an offset noise matrix and a variance noise matrix based on the voltage offset, the voltage variance, a preset voltage measurement specification, the current offset, the current variance and a preset current measurement specification and calculate a system noise from the offset noise matrix and the variance noise matrix; and a battery state estimation unit configured to estimate state information of the battery by applying the system noise to a preset recursive filter. an offset and variance calculation unit configured to calculate a voltage offset and a voltage variance based on a voltage value of a battery obtained during a predetermined period and calculate a current offset and a current variance based on a current value of the battery obtained during the predetermined period; a system noise calculation unit configured to calculate an offset noise matrix and a variance noise matrix based on the voltage offset, the voltage variance, a preset voltage measurement specification, the current offset, the current variance and a preset current measurement specification and calculate a system noise from the offset noise matrix and the variance noise matrix; and a battery state estimation unit configured to estimate state information of the battery by applying the system noise to a preset recursive filter.
An agitating ball mill comprising a cylindrical grinding container , which is closed by means of end walls located opposite one another, comprising a drive shaft of an agitator , which is guided through an end wall of the agitating ball mill within a shaft feed-through , wherein the drive shaft of the agitator is enclosed by a shaft seal sleeve in the region of one of the end walls and is guided through the end wall via a central opening , comprising a sealing module enclosing the drive shaft and the shaft seal sleeve in the region of the central opening , the sealing module comprising at least one sealing element for sealing the central opening of the end wall with respect to the drive shaft , wherein the sealing module comprises a connecting unit , to which the at least one sealing element is assigned, and wherein the sealing module is flexibly anchored to the end wall via the connecting unit , wherein the anchoring comprises a flexible fastening element between the end wall and the connecting unit , wherein the flexible fastening element is formed as ring element, characterized in that the flexible fastening element is constructed from at least two layers arranged next to one another in the axial direction, wherein at least one layer is compressible and/or elastic.
A work vehicle (A), , comprising: an air conditioner main body ; an air conditioner main body arrangement part inside which the air conditioner main body is arranged, the air conditioner main body arrangement part being provided in a ceiling part of a cabin (C) covering a driver unit , in such a manner that the air conditioner main body arrangement part protrudes rearward from a pair of left and right rear strut pieces of the cabin (C); the air conditioner main body arrangement part includes a main body support member protruding rearward, which is provided to an upper rear beam piece laterally bridged between upper end portions of the pair of left and right rear strut pieces ; the main body support member has support rigidity to support the air conditioner main body from below; and characterized in that the main body support member includes a horizontal protruding surface portion which is integrally formed by rigid thin sheet metal in such a manner as to horizontally protrude, and a rising surface portion which rises upward from a rear end edge portion of the horizontal protruding surface portion ; and the rising surface portion has a plurality of attachment stays horizontally protruding inward, thereby enabling attachment of the air conditioner main body from above via the plurality of attachment stays in a bridging manner. an air conditioner main body ; an air conditioner main body arrangement part inside which the air conditioner main body is arranged, the air conditioner main body arrangement part being provided in a ceiling part of a cabin (C) covering a driver unit , in such a manner that the air conditioner main body arrangement part protrudes rearward from a pair of left and right rear strut pieces of the cabin (C); the air conditioner main body arrangement part includes a main body support member protruding rearward, which is provided to an upper rear beam piece laterally bridged between upper end portions of the pair of left and right rear strut pieces ; the main body support member has support rigidity to support the air conditioner main body from below; and characterized in that the main body support member includes a horizontal protruding surface portion which is integrally formed by rigid thin sheet metal in such a manner as to horizontally protrude, and a rising surface portion which rises upward from a rear end edge portion of the horizontal protruding surface portion ; and the rising surface portion has a plurality of attachment stays horizontally protruding inward, thereby enabling attachment of the air conditioner main body from above via the plurality of attachment stays in a bridging manner.
A compound of the formula below, wherein * designates a chiral center; R1 is selected from: H, -CH 3 , -CH 2 CH 2 OCH 3 , and -CH 2 CHF 2 ; R2 is selected from H and CH 3 , or R1 and R2 can join to form a fused 6 membered heterocyclic ring containing O and the N bonded to R1; R3 is H or -CH 3 ; R4 is H or -CH 3 ; and R5 is selected from: Cl, -CF 3 , and -OCF 3 ; or a pharmaceutically acceptable salt thereof. wherein * designates a chiral center; R1 is selected from: H, -CH 3 , -CH 2 CH 2 OCH 3 , and -CH 2 CHF 2 ; R2 is selected from H and CH 3 , or R1 and R2 can join to form a fused 6 membered heterocyclic ring containing O and the N bonded to R1; R3 is H or -CH 3 ; R4 is H or -CH 3 ; and R5 is selected from: Cl, -CF 3 , and -OCF 3 ; or a pharmaceutically acceptable salt thereof.
A device , comprising: a housing constructed from a conductive material, the housing including two conductive portions ; an electronic circuit being electrically insulated from one conductive portion of the housing that is removable and being conductively coupled to the other conductive portion of the housing ; a power source disposed between the electronic circuit and a side of the housing , the power source positioned such that a first electrical contact of the power source faces the electronic circuit , and such that a second electrical contact of the power source faces the side of the housing ; an insulating layer disposed on the housing , the insulating layer including a first aperture (250A-1, 250A-4) and a second aperture (250A-2, 250A-3) formed therein; a first connector configured for electrically coupling the electronic circuit and the first electrical contact ; and a second connector configured for electrically coupling the electronic circuit and the side of the housing via the first aperture (250A-1, 250A-4) of the insulating layer , the side of the housing including a raised portion (240A-2, 240A-3) positioned to protrude through the second aperture (250A-2, 250A-3) of the insulating layer and contact the second electrical contact , the power source configured for electrically coupling the second electrical contact with the side of the housing via the second aperture (250A-2, 250A-3) of the insulating layer , such that the second electrical contact is conductively coupled to the electronic circuit via the housing and the second connector. a housing constructed from a conductive material, the housing including two conductive portions ; an electronic circuit being electrically insulated from one conductive portion of the housing that is removable and being conductively coupled to the other conductive portion of the housing ; a power source disposed between the electronic circuit and a side of the housing , the power source positioned such that a first electrical contact of the power source faces the electronic circuit , and such that a second electrical contact of the power source faces the side of the housing ; an insulating layer disposed on the housing , the insulating layer including a first aperture (250A-1, 250A-4) and a second aperture (250A-2, 250A-3) formed therein; a first connector configured for electrically coupling the electronic circuit and the first electrical contact ; and a second connector configured for electrically coupling the electronic circuit and the side of the housing via the first aperture (250A-1, 250A-4) of the insulating layer , the side of the housing including a raised portion (240A-2, 240A-3) positioned to protrude through the second aperture (250A-2, 250A-3) of the insulating layer and contact the second electrical contact , the power source configured for electrically coupling the second electrical contact with the side of the housing via the second aperture (250A-2, 250A-3) of the insulating layer , such that the second electrical contact is conductively coupled to the electronic circuit via the housing and the second connector.
An apparatus comprising: (a) a body ; and (b) a catheter extending distally from the body , wherein at least a portion of the catheter is sized and configured to fit within a lumen of a human cardiovascular system, wherein the catheter includes: (i) a distal end , (ii) a proximal end, (iii) at least one electrode at the distal end, (iv) at least one irrigation port at the distal end, and (v) a fluid conduit in fluid communication with the at least one irrigation port ; characterized by : the apparatus further comprising: (c) a fluid connector assembly extending proximally from the body , wherein the fluid connector assembly comprises: (i) a fluid connector body , wherein the fluid connector body is configured to couple with a complementary connector associated with a fluid source , wherein a proximal end of the fluid conduit is positioned in an interior region of the fluid connector body , (ii) a grounding member interposed between the proximal end of the fluid conduit and the fluid connector body , wherein the grounding member is in communication with the interior region of the fluid connector body such that the grounding member is configured to provide an electrical ground to fluid communicated to the fluid conduit via the fluid connector body , and the grounding member comprising a conductive cuff that is coaxially positioned about the proximal end of the fluid conduit and is secured to the fluid connector body by an adhesive , the adhesive interposed between an exterior of the conductive cuff and an interior portion of the fluid connector body , such that a portion of the conductive cuff is positioned for exposure to fluid communicated through the fluid conduit . (a) a body ; and (b) a catheter extending distally from the body , wherein at least a portion of the catheter is sized and configured to fit within a lumen of a human cardiovascular system, wherein the catheter includes: (i) a distal end , (ii) a proximal end, (iii) at least one electrode at the distal end, (iv) at least one irrigation port at the distal end, and (v) a fluid conduit in fluid communication with the at least one irrigation port ; (i) a distal end , (ii) a proximal end, (iii) at least one electrode at the distal end, (iv) at least one irrigation port at the distal end, and (v) a fluid conduit in fluid communication with the at least one irrigation port ; (i) a fluid connector body , wherein the fluid connector body is configured to couple with a complementary connector associated with a fluid source , wherein a proximal end of the fluid conduit is positioned in an interior region of the fluid connector body , (ii) a grounding member interposed between the proximal end of the fluid conduit and the fluid connector body , wherein the grounding member is in communication with the interior region of the fluid connector body such that the grounding member is configured to provide an electrical ground to fluid communicated to the fluid conduit via the fluid connector body , and
A copolymer which is a tetrafluoroethylene (TFE)/hexafluoropropylene (HFP) copolymer having - a melt flow rate (MFR) of 35.0-45.0 g/10 min., measured according to ASTM D 1238 at 372°C and a load of 5 kg using a die having a diameter of 2.1 mm and a length of 8 mm; - a swell of -8.0% to 5.0%, determined according to the method defined in paragraph of the specification; and - a total number of (i) -CF 2 H groups and (ii) -COF, -COOH, -COOCH 3 , -CONH 2 and -CH 2 OH present at an end of the main chain of 120 or less per 1 x 10 6 carbon atoms; determined according to the methods defined in paragraph of the specification. - a melt flow rate (MFR) of 35.0-45.0 g/10 min., measured according to ASTM D 1238 at 372°C and a load of 5 kg using a die having a diameter of 2.1 mm and a length of 8 mm; - a swell of -8.0% to 5.0%, determined according to the method defined in paragraph of the specification; and - a total number of (i) -CF 2 H groups and (ii) -COF, -COOH, -COOCH 3 , -CONH 2 and -CH 2 OH present at an end of the main chain of 120 or less per 1 x 10 6 carbon atoms; determined according to the methods defined in paragraph of the specification.
A method for producing a polyacrylic acid (salt)-based water absorbent resin particle, comprising the steps of: (a) adding a surface crosslinking agent solution to water absorbent resin powder to obtain a mixture; (b) reacting the mixture; and (c) adding an aqueous liquid to at least one selected from the group consisting of (i) the water absorbent resin powder during the step (b) and (ii) the water absorbent resin powder after the step (b), an atmospheric dew point being not lower than 20°C in the step (c), and a temperature of the water absorbent resin powder being higher than the atmospheric dew point in the step (c). (a) adding a surface crosslinking agent solution to water absorbent resin powder to obtain a mixture; (b) reacting the mixture; and (c) adding an aqueous liquid to at least one selected from the group consisting of (i) the water absorbent resin powder during the step (b) and (ii) the water absorbent resin powder after the step (b),
A method for processing a direct current electric arc, applied to a photovoltaic cell system, comprising: obtaining a first current, wherein the first current is a direct current input current of a direct current cable connected to a photovoltaic cell panel of the photovoltaic cell system; obtaining a second current, wherein the second current is a direct current common mode current of a direct current cable on a direct current port side of an inverter of the photovoltaic cell system or an alternating current common mode current of an alternating current cable on an alternating current port side of the inverter; obtaining a correlation coefficient between a frequency domain component of the first current and a frequency domain component of the second current, wherein the frequency domain component is a frequency value of a current within a preset frequency band in frequency domain, and the correlation coefficient reflects a degree of correlation between the frequency domain component of the first current and the frequency domain component of the second current; and when determining that the first current meets an electric arc occurrence condition and the correlation coefficient is greater than or equal to a preset coefficient threshold, skipping sending a direct current electric arc fault alarm. obtaining a first current, wherein the first current is a direct current input current of a direct current cable connected to a photovoltaic cell panel of the photovoltaic cell system; obtaining a second current, wherein the second current is a direct current common mode current of a direct current cable on a direct current port side of an inverter of the photovoltaic cell system or an alternating current common mode current of an alternating current cable on an alternating current port side of the inverter; obtaining a correlation coefficient between a frequency domain component of the first current and a frequency domain component of the second current, wherein the frequency domain component is a frequency value of a current within a preset frequency band in frequency domain, and the correlation coefficient reflects a degree of correlation between the frequency domain component of the first current and the frequency domain component of the second current; and when determining that the first current meets an electric arc occurrence condition and the correlation coefficient is greater than or equal to a preset coefficient threshold, skipping sending a direct current electric arc fault alarm.
Voltage warning device for an electrical system part of an electrical system or an electrical system with: (a) an electrical component which is arranged to be electrically connected to an active part of the electrical system part or of the electrical system and to tap off a voltage applied to the active part , the active part being an electrically conductive part of the electrical system or of the electrical system part which is energized during normal operation of the electrical system or of the electrical system part , and (b) a first wireless signal unit , which is electrically connected to the electrical component and is arranged such that the first wireless signal unit transmits a warning signal into an environment around the first wireless signal unit when the electrical component taps a voltage from the active part , so that the warning signal can be received by a second wireless signal unit located in the environment . (a) an electrical component which is arranged to be electrically connected to an active part of the electrical system part or of the electrical system and to tap off a voltage applied to the active part , the active part being an electrically conductive part of the electrical system or of the electrical system part which is energized during normal operation of the electrical system or of the electrical system part , and (b) a first wireless signal unit , which is electrically connected to the electrical component and is arranged such that the first wireless signal unit transmits a warning signal into an environment around the first wireless signal unit when the electrical component taps a voltage from the active part , so that the warning signal can be received by a second wireless signal unit located in the environment .