mhurhangee/patent-ind-claim-en huggingface dataset:
A nonwoven web for an absorbent article, the nonwoven web comprising: a first surface; a second surface; and a repeat unit comprising: a visually discernible pattern of three-dimensional features on the first surface or the second surface, wherein the three-dimensional features comprise one or more first regions and a plurality of second regions, and wherein the plurality of second regions comprise 10 to 100 irregular varying regions varying in shape and/or area, according to the Pattern Analysis Test detailed herein; wherein the one or more first regions comprise a plurality of substantially linear segments; and wherein the plurality of second regions comprising the 10 to 100 irregular varying regions are free of the plurality of substantially linear segments. a first surface; a second surface; and a repeat unit comprising: a visually discernible pattern of three-dimensional features on the first surface or the second surface, wherein the three-dimensional features comprise one or more first regions and a plurality of second regions, and wherein the plurality of second regions comprise 10 to 100 irregular varying regions varying in shape and/or area, according to the Pattern Analysis Test detailed herein; wherein the one or more first regions comprise a plurality of substantially linear segments; and wherein the plurality of second regions comprising the 10 to 100 irregular varying regions are free of the plurality of substantially linear segments. a visually discernible pattern of three-dimensional features on the first surface or the second surface, wherein the three-dimensional features comprise one or more first regions and a plurality of second regions, and wherein the plurality of second regions comprise 10 to 100 irregular varying regions varying in shape and/or area, according to the Pattern Analysis Test detailed herein; wherein the one or more first regions comprise a plurality of substantially linear segments; and wherein the plurality of second regions comprising the 10 to 100 irregular varying regions are free of the plurality of substantially linear segments.
A wireless power transmitter for wirelessly coupling charging power to one or more receiver devices, comprising: a power transmit coil configured to generate a magnetic field , the magnetic field having a first magnetic field distribution that is substantially uniform over an area defining a charging region; a circuit configured to alter the magnetic field generated by the power transmit coil to alter the magnetic field distribution to a second magnetic field distribution that has a peak in a centre portion of the charging region; and characterized by comprising a controller operably coupled to the circuit, the controller configured to detect a characteristic indicative of a size of a receiver device placed in the charging region and control the circuit in a first mode to generate the first magnetic field distribution in response to determining the characteristic indicative of the size indicates a first size of the receiver device and control the circuit in a second mode to generate the second magnetic field distribution in response to determining the characteristic indicative of the size indicates a second size of the receiver device, the second size being larger than the first size. a power transmit coil configured to generate a magnetic field , the magnetic field having a first magnetic field distribution that is substantially uniform over an area defining a charging region; a circuit configured to alter the magnetic field generated by the power transmit coil to alter the magnetic field distribution to a second magnetic field distribution that has a peak in a centre portion of the charging region; and characterized by comprising a controller operably coupled to the circuit, the controller configured to detect a characteristic indicative of a size of a receiver device placed in the charging region and control the circuit in a first mode to generate the first magnetic field distribution in response to determining the characteristic indicative of the size indicates a first size of the receiver device and control the circuit in a second mode to generate the second magnetic field distribution in response to determining the characteristic indicative of the size indicates a second size of the receiver device, the second size being larger than the first size.
A user-plane gateway node of a core of a cellular network , comprising: - an interface (118-3), - at least one processor (118-1) configured to establish, via the interface (118-3) with an access point node attached to the cellular network via a radio link , an end-to-end connection , wherein the at least one processor (118-1) is further configured to send, via the interface (118-3) and as part of said establishing of the end-to-end connection, an IP address of a terminal connected to the access point node via a further radio link , to the access point node , wherein the end-to-end connection is identified by the IP address of the terminal . - an interface (118-3), - at least one processor (118-1) configured to establish, via the interface (118-3) with an access point node attached to the cellular network via a radio link , an end-to-end connection , wherein the at least one processor (118-1) is further configured to send, via the interface (118-3) and as part of said establishing of the end-to-end connection, an IP address of a terminal connected to the access point node via a further radio link , to the access point node , wherein the end-to-end connection is identified by the IP address of the terminal .
Electronic hand stamp comprising: an inkjet printhead with nozzles directed toward a bottom side of the electronic hand stamp , a control circuit and a motion detector, wherein the control circuit is connected to the motion detector and to the inkjet printhead and configured to control the inkjet printhead in response to readings received from the motion detector, wherein the electronic hand stamp comprises at least four indicator LEDs (10-17) connected to the control circuit , wherein at least one of the at least four indicator LEDs (10-17) is arranged on each side perpendicular to the bottom side of the electronic hand stamp , characterized in that the control circuit is configured to control the at least four indicator LEDs (10-17) in an interdependent fashion in order to together indicate the same one or more signals concerning the operating status, and wherein the electronic hand stamp comprises a diffuser , wherein all of the at least four indicator LEDs (10-17) are optically connected with the diffuser . an inkjet printhead with nozzles directed toward a bottom side of the electronic hand stamp , a control circuit and a motion detector, wherein the control circuit is connected to the motion detector and to the inkjet printhead and configured to control the inkjet printhead in response to readings received from the motion detector, wherein the electronic hand stamp comprises at least four indicator LEDs (10-17) connected to the control circuit , wherein at least one of the at least four indicator LEDs (10-17) is arranged on each side perpendicular to the bottom side of the electronic hand stamp , characterized in that the control circuit is configured to control the at least four indicator LEDs (10-17) in an interdependent fashion in order to together indicate the same one or more signals concerning the operating status, and wherein the electronic hand stamp comprises a diffuser , wherein all of the at least four indicator LEDs (10-17) are optically connected with the diffuser .
Foldable elevator car frame comprising: a ceiling , a floor platform and at least one upright extending between the floor platform and the ceiling ; and at least one hinge allowing at least a movable portion of the floor platform and/or a movable portion of the ceiling to pivot with respect to the at least one upright between a folded transportation configuration and an extended operational configuration; characterized in that the at least one upright comprises: an upper portion pivotably connected to the ceiling ; a lower portion pivotably connected to the floor platform ; and a middle portion pivotably connected to the upper and lower portions , respectively, so that the at least one upright is foldable between an extended operational configuration, in which the upper portion , the middle portion , and the lower portion extend linearly along a common axis; and a folded transportation configuration, in which the upper and lower portions are oriented in an inclined configuration with respect to the middle portion . a ceiling , a floor platform and at least one upright extending between the floor platform and the ceiling ; and at least one hinge allowing at least a movable portion of the floor platform and/or a movable portion of the ceiling to pivot with respect to the at least one upright between a folded transportation configuration and an extended operational configuration; characterized in that the at least one upright comprises: an upper portion pivotably connected to the ceiling ; a lower portion pivotably connected to the floor platform ; and a middle portion pivotably connected to the upper and lower portions , respectively, so that the at least one upright is foldable between an extended operational configuration, in which the upper portion , the middle portion , and the lower portion extend linearly along a common axis; and a folded transportation configuration, in which the upper and lower portions are oriented in an inclined configuration with respect to the middle portion . an upper portion pivotably connected to the ceiling ; a lower portion pivotably connected to the floor platform ; and a middle portion pivotably connected to the upper and lower portions , respectively, so that the at least one upright is foldable between an extended operational configuration, in which the upper portion , the middle portion , and the lower portion extend linearly along a common axis; and a folded transportation configuration, in which the upper and lower portions are oriented in an inclined configuration with respect to the middle portion .
A power module substrate comprising: an insulating substrate ; a circuit layer which is formed on one surface of the insulating substrate ; and a metal layer which is formed on the other surface of the insulating substrate , wherein the circuit layer has a first aluminum layer made of aluminum or an aluminum alloy which is bonded to the insulating substrate and a first copper layer made of copper or a copper alloy which is bonded to the first aluminum layer , the metal layer has a second aluminum layer made of aluminum or an aluminum alloy, and a relationship between a thickness t 1 of the circuit layer and a thickness t 2 of the second aluminum layer of the metal layer satisfies t 1 < t 2 , characterized in that the first copper layer is bonded to the first aluminum layer by solid-phase diffusion, and an intermetallic compound layer is formed between the first aluminum layer and the first copper layer , and has a structure in which a plurality of intermetallic compounds are laminated along a bonding interface between the first aluminum layer and the first copper layer . an insulating substrate ; a circuit layer which is formed on one surface of the insulating substrate ; and a metal layer which is formed on the other surface of the insulating substrate , wherein the circuit layer has a first aluminum layer made of aluminum or an aluminum alloy which is bonded to the insulating substrate and a first copper layer made of copper or a copper alloy which is bonded to the first aluminum layer , the metal layer has a second aluminum layer made of aluminum or an aluminum alloy, and a relationship between a thickness t 1 of the circuit layer and a thickness t 2 of the second aluminum layer of the metal layer satisfies t 1 < t 2 , characterized in that the first copper layer is bonded to the first aluminum layer by solid-phase diffusion, and an intermetallic compound layer is formed between the first aluminum layer and the first copper layer , and has a structure in which a plurality of intermetallic compounds are laminated along a bonding interface between the first aluminum layer and the first copper layer .
A method for texturizing instant soup by using Chickpea flour, wherein the chickpeas have undergone at least one time wetting, two different times tempering and at least one time roasting processes before grinding chickpeas to get chickpea flour comprising the following steps: a. Wetting and letting chickpeas swell if they are dry b. Tempering wetted or fresh chickpeas for 1-60 minutes at 50-150° C c. Resting tempered chickpeas between 1-100 days d. Wetting rested chickpeas and tempering them for 1-60 minutes at 50-150° C e. Resting tempered chickpeas between 1-100 days f. Roasting tempered chickpeas for 1-60 minutes at 80-300°C g. Removing chickpea skin by an equipment called mafrak during or after roasting h. Grinding chickpeas or crushed chickpeas and texturizing of soup is achieved by the steps below i. Addition of one or a mixture of some substances among milk powder, whey powder, yoghurt powder, cheese powder, dried fruits or vegetable, spices, flavouring substances such as salt or sugar to the obtained chickpea powder. j. Consumption of the mixture by adding liquid at 85-100°C. a. Wetting and letting chickpeas swell if they are dry b. Tempering wetted or fresh chickpeas for 1-60 minutes at 50-150° C c. Resting tempered chickpeas between 1-100 days d. Wetting rested chickpeas and tempering them for 1-60 minutes at 50-150° C e. Resting tempered chickpeas between 1-100 days f. Roasting tempered chickpeas for 1-60 minutes at 80-300°C g. Removing chickpea skin by an equipment called mafrak during or after roasting h. Grinding chickpeas or crushed chickpeas i. Addition of one or a mixture of some substances among milk powder, whey powder, yoghurt powder, cheese powder, dried fruits or vegetable, spices, flavouring substances such as salt or sugar to the obtained chickpea powder. j. Consumption of the mixture by adding liquid at 85-100°C.
Pneumatic vehicle tire having at least one body component comprising a rubber mixture containing - 10-100 phr (parts by weight based on 100 parts by weight of the total rubbers in the mixture) of at least one hydrogenated solution-polymerized styrene-butadiene copolymer having a degree of hydrogenation of more than 90%, - up to 90 phr of at least one further diene rubber and - 20-80 phr of at least one filler, wherein the body components of a tire include all components of the tire with the exception of the tread. - 10-100 phr (parts by weight based on 100 parts by weight of the total rubbers in the mixture) of at least one hydrogenated solution-polymerized styrene-butadiene copolymer having a degree of hydrogenation of more than 90%, - up to 90 phr of at least one further diene rubber and - 20-80 phr of at least one filler,
Device for identifying baggage , comprising a baggage support and at least one member for acquiring images of the baggage from at least two exposure directions that are inclined with respect to one another, the acquisition member being linked to an image processing computing unit programmed to control the acquisition member and extract images of the representative features of the baggage, the acquisition member comprising at least two optical sensors (3.1, 3.2, 4.1, 4.2) linked to the image processing computing unit ; characterized in that the identification device comprises at least two posts (5.1, 5.2), the posts being diametrically opposite on either side of a centre of the support, and in that said at least two optical sensors are each mounted on a post (5.1, 5.2) at different heights.
A device for recovering metallic materials comprising at least one anode member and at least one cathode sponge for collecting the metal deposited, both contained in a cylindrical containment body and both designed to be at least partly immersed in successive portions of an electrolytic solution; said cathode sponge being extractable from said cylindrical body ; the device also comprising infeed means for feeding said cylindrical body and outfeed means for the excess solution; characterized in that the device comprises a frame for supporting said cathode sponge designed to be securely connected to said cylindrical body in a removable fashion, wherein said frame is divisible and modular in two parts (5', 5") which are removably fixable to each other: a first part , to which said cathode sponge is associated, having user gripping means designed to be external relative to the inside of said cylindrical body and a second part (5") designed to be entirely contained inside said cylindrical body . at least one anode member and at least one cathode sponge for collecting the metal deposited, both contained in a cylindrical containment body and both designed to be at least partly immersed in successive portions of an electrolytic solution; said cathode sponge being extractable from said cylindrical body ; the device also comprising infeed means for feeding said cylindrical body and outfeed means for the excess solution; characterized in that the device comprises a frame for supporting said cathode sponge designed to be securely connected to said cylindrical body in a removable fashion, wherein said frame is divisible and modular in two parts (5', 5") which are removably fixable to each other: a first part , to which said cathode sponge is associated, having user gripping means designed to be external relative to the inside of said cylindrical body and a second part (5") designed to be entirely contained inside said cylindrical body .
A housing material for a photovoltaic module comprising a plurality of fibers and powder coating material , characterized in that : the powder coating material comprises an epoxy resin with an epoxy equivalent weight in between 150 g/eq. and 1800 g/eq; wherein the epoxy resin is selected from bisphenol epoxy resin, polyphenol epoxy resin, novolak epoxy resin, phenolic epoxy resin, hydrogenated bisphenol epoxy resin, hydrogenated polyphenol epoxy resin, halogenated bisphenol epoxy resin, halogenated polyphenol epoxy resin, (cyclo)aliphatic epoxy resin and mixtures thereof; and wherein a glass transition temperature of the uncured powder coating material is at least 30 °C, measured with Differential Scanning Calorimetry at a heating rate of 20 K / min. the powder coating material comprises an epoxy resin with an epoxy equivalent weight in between 150 g/eq. and 1800 g/eq; wherein the epoxy resin is selected from bisphenol epoxy resin, polyphenol epoxy resin, novolak epoxy resin, phenolic epoxy resin, hydrogenated bisphenol epoxy resin, hydrogenated polyphenol epoxy resin, halogenated bisphenol epoxy resin, halogenated polyphenol epoxy resin, (cyclo)aliphatic epoxy resin and mixtures thereof; and wherein a glass transition temperature of the uncured powder coating material is at least 30 °C, measured with Differential Scanning Calorimetry at a heating rate of 20 K / min.
A tire in which at least one land portion is defined on a tread surface of the tire between grooves or between a groove and a tread edge (TE) by at least one groove and a tread edge (TE), wherein the at least one land portion comprises at least one sipe extending linearly, the sipe comprises a first widened portion in which a portion that expands in a direction intersecting an extending direction of the sipe extends continuously from the tread surface toward a depth direction of the sipe , and a second widened portion in which a portion that expands in a direction intersecting the extending direction of the sipe extends continuously in a direction intersecting at least one of the first widened portions , the sipe includes at least one bending point (M1-M3) in the depth direction, and the second widened portion is arranged at each of the bending points (M1-M3). the at least one land portion comprises at least one sipe extending linearly, the sipe comprises a first widened portion in which a portion that expands in a direction intersecting an extending direction of the sipe extends continuously from the tread surface toward a depth direction of the sipe , and a second widened portion in which a portion that expands in a direction intersecting the extending direction of the sipe extends continuously in a direction intersecting at least one of the first widened portions , the sipe includes at least one bending point (M1-M3) in the depth direction, and the second widened portion is arranged at each of the bending points (M1-M3).
A production method of single crystal silicon using the Czochralski method, comprising steps of: charging silicon raw material into a crucible ; setting a heater output, at an initial stage of melting the silicon raw material in the crucible , in a range from 15% to 50% of an output of the heater output that is necessary to completely melt the silicon raw material for setting the temperature in the crucible in a range from 250 degrees C to 750 degrees C, and keeping the heater output in a range from 3 hours to 20 hours; melting the silicon raw material to a silicon melt by setting the heater output to an output necessary to completely melt the silicon raw material; and pulling single crystal silicon from the crucible where the silicon melt is formed; wherein at the initial stage of melting the silicon raw material in the crucible , in the step of setting the heater output in the range from 15% to 50% of the output of the heater output that is necessary to completely melt the silicon raw material for setting the temperature in the crucible in a range from 250 degrees C to 750 degrees C and the heater output being kept in the range from 3 hours to 20 hours, a flow rate of an inert gas in the furnace is set in a range from 200L/min to 400L/min. charging silicon raw material into a crucible ; setting a heater output, at an initial stage of melting the silicon raw material in the crucible , in a range from 15% to 50% of an output of the heater output that is necessary to completely melt the silicon raw material for setting the temperature in the crucible in a range from 250 degrees C to 750 degrees C, and keeping the heater output in a range from 3 hours to 20 hours; melting the silicon raw material to a silicon melt by setting the heater output to an output necessary to completely melt the silicon raw material; and pulling single crystal silicon from the crucible where the silicon melt is formed; wherein at the initial stage of melting the silicon raw material in the crucible , in the step of setting the heater output in the range from 15% to 50% of the output of the heater output that is necessary to completely melt the silicon raw material for setting the temperature in the crucible in a range from 250 degrees C to 750 degrees C and the heater output being kept in the range from 3 hours to 20 hours, a flow rate of an inert gas in the furnace is set in a range from 200L/min to 400L/min.