mhurhangee/ep-ind-claims huggingface dataset:
A device (100, 200, 500, 600) for radio frequency skin treatment of skin (102, 103, 310, 710) of a user, the device (100, 200, 500, 600) comprising: - an active electrode (106, 107, 206, 314, 560, 611, 701, 702) having a skin contact surface with a maximum dimension in a range from 100 μm to 500 μm, said maximum dimension referring to a maximum distance present between two points on an outer circumference of the skin contact surface; - a return electrode (104, 105, 204, 312, 562, 612, 703, 704) having a planar skin contact surface, the planar skin contact surface of the return electrode extending in a main plane (322, 751); and - an RF generator (108, 208) arranged to supply, during use, RF energy to the skin (102, 103, 310, 710) for creating fractional non-ablative lesions via the return electrode (104, 105, 204, 312, 562, 612, 703, 704) and the active electrode (106, 107, 206, 314, 560, 611, 701, 702); wherein a surface area of the planar skin contact surface of the return electrode is at least 5 times larger than a surface area of the skin contact surface of the active electrode; characterized in that the skin contact surface of the active electrode is arranged or arrangable in a position at a distance (320, 330, 740, 750) from the main plane, seen in a direction perpendicular to the main plane. - an active electrode (106, 107, 206, 314, 560, 611, 701, 702) having a skin contact surface with a maximum dimension in a range from 100 μm to 500 μm, said maximum dimension referring to a maximum distance present between two points on an outer circumference of the skin contact surface; - a return electrode (104, 105, 204, 312, 562, 612, 703, 704) having a planar skin contact surface, the planar skin contact surface of the return electrode extending in a main plane (322, 751); and - an RF generator (108, 208) arranged to supply, during use, RF energy to the skin (102, 103, 310, 710) for creating fractional non-ablative lesions via the return electrode (104, 105, 204, 312, 562, 612, 703, 704) and the active electrode (106, 107, 206, 314, 560, 611, 701, 702); wherein a surface area of the planar skin contact surface of the return electrode is at least 5 times larger than a surface area of the skin contact surface of the active electrode; characterized in that the skin contact surface of the active electrode is arranged or arrangable in a position at a distance (320, 330, 740, 750) from the main plane, seen in a direction perpendicular to the main plane. wherein a surface area of the planar skin contact surface of the return electrode is at least 5 times larger than a surface area of the skin contact surface of the active electrode; characterized in that the skin contact surface of the active electrode is arranged or arrangable in a position at a distance (320, 330, 740, 750) from the main plane, seen in a direction perpendicular to the main plane.
An assembly comprising a rotating shaft, a bearing and a heat sink component positioned between the rotating shaft and the bearing, the heat sink component comprising: a cylindrical body with a first end and a second end; a bore running through the body with a first opening at the first end of the body and a second opening at the second end of the body; fins extending radially outward from the body and running from the first end to the second end of the body; channels defined between the fins and running from the first end to the second end of the body, wherein the channels define open spaces that are configured to allow cooling air to flow through them; a first standoff extending axially away from the first end of the body; and a second standoff extending axially away from the second end of the body, wherein the channels define air passages that are configured to direct cooling air to flow along an inner surface of the bearing to cool the bearing with convective heat transfer. a cylindrical body with a first end and a second end; a bore running through the body with a first opening at the first end of the body and a second opening at the second end of the body; fins extending radially outward from the body and running from the first end to the second end of the body; channels defined between the fins and running from the first end to the second end of the body, wherein the channels define open spaces that are configured to allow cooling air to flow through them; a first standoff extending axially away from the first end of the body; and a second standoff extending axially away from the second end of the body, wherein the channels define air passages that are configured to direct cooling air to flow along an inner surface of the bearing to cool the bearing with convective heat transfer.
A method for remote control of a browser program executed on a source computer by a target computer, wherein the browser program generates a browser window (1; 18; 19) in which objects (11, 12, 13, 14, 15; 119) are displayed in a structurally coordinated manner taking into account the configuration of the browser window (1; 18; 19), and the objects (11, 12, 13, 14, 15; 119) displayed in the browser window (1; 18; 19) are simultaneously transmitted to the target computer and displayed on the target computer, wherein, the objects (11, 12, 13, 14, 15; 119) are individually transmitted to the target computer and are displayed on the target computer by means of a second browser program executed on the target computer, the second browser program generates a second browser window (2, 2a, 2b; 29, 29a, 29b, 29c; 28a, 28b), in which the objects (21, 22, 23, 24, 25, 21 a, 22a, 23a, 24a, 25a, 21 b, 22b, 23b, 24b, 25b; 281 a, 282a, 281 b, 282b; 291 a, 291 b, 291 c) are displayed in a structurally coordinated manner taking into account the configuration of the second browser window (2, 2a, 2b; 29, 29a, 29b, 29c; 28a, 28b), wherein the browser program and the second browser program each comprise an interpretation unit for evaluating a markup language and for executing script commands, a page, comprising a markup language, is transmitted to the source computer, and is displayed and executed by means of the browser program, and the page comprises script commands for executing the page, characterized in that script commands for remote control (10, 20, 20a, 20b, 30) of the browser program executed on the source computer are added to the page before transmission to the source computer, the remote control of the browser program executed on the source computer is executed completely by means of the interpretation unit of the browser program and the interpretation unit of the second browser program, and one of the script commands for executing the page, which displays an object outside of the browser window (1; 18; 19) of the browser program, is replaced by a script command for remote control of the browser program executed on the source computer before transmission to the source computer, such that this script command for remote control of the browser program executed on the source computer takes over the same functionality in the browser window (1; 18; 19) as the replaced script command for executing the page.
A single-handle dual-control thermostatic faucet composed of a valve body, a handle and a valve spool and a hot water inlet, cold water inlet and mixed water outlet respectively arranged on the left, right and in front of the valve body; wherein the valve spool is a single-handle thermostatic valve pool being able to control water flow which consists of a thermostatic mixed water assembly, a flow regulation assembly and a driving lever for temperature and flow regulation; wherein the hot water and cold water control holes (811, 821) of the thermostatic mixed water assembly respectively connect with the hot water and cold water inlets (81, 82) of the valve body; the water outlet end of the thermostatic mixed water assembly is connected to the water inlet end of the flow regulation assembly, and the mixed water outlet of the valve body is connected to the water outlet end of the flow regulation assembly; the handle is arranged on top of the valve body and connects and coordinates with the driving lever; characterised in that the hot water and cold water inlets (81, 82) are arranged with an annular support inwards, and the support is provided with hot water and cold water control holes (811, 821) around the valve body at different heights respectively on the left and right sides, a mixed water hole at the bottom, and the support is provided with a longitudinal mixed water passing hole in the position away from the hot water and cold water inlets (81,82).
A paper making machine comprising a forming section in which a fibrous web can be formed; a drying section in which a formed fibrous web can be dried; and a reel-up on which a dried fibrous web can be wound into a roll, and wherein a machine direction is defined as the direction from the forming section toward the reel-up and wherein the paper making machine is arranged to carry a fibrous web in the machine direction along a predetermined path, the paper making machine having at least one water jet cutting device (17, 18, 19) arranged to cut the fibrous web that is moving in the machine direction such that the fibrous web is divided into at least one waste part (23a, 23b, 30) and a remaining part (24, 29) and wherein the paper making machine is arranged to direct the at least one waste part (23a, 23b, 30) away from the predetermined path and to convey the remaining part (24, 29) further in the machine direction along the predetermined path, and wherein the paper making machine further comprises a blowing device (20, 21, 22) arranged to blow gas or air in the area of the at least one water jet cutting device (17, 18, 19), the blowing device (20, 21, 22) being arranged to blow gas or air against the water jet cutting device (17, 18, 19) in a direction toward the remaining part of the fibrous web (24, 29) such that fiber particles that have been released by the cutting action of the water jet cutting device (17, 18, 19) are blown onto the surface of the remaining part (24, 29) of the fibrous web and follow the remaining part (24, 29) of the fibrous web along the predetermined path, the blowing device (20, 21, 22) having a nozzle with an exit opening through which the air or gas is ejected in a stream and which nozzle is oriented at an angle (α) to the machine direction such that the stream of air or gas that is blown out of the exit opening is directed in its entirety at an angle to the machine direction, characterised in that the nozzle of the blowing device (20, 21, 22) is designed to a create a circular cylindrical or cone-shaped stream of air or gas toward the water jet cutting device (17, 18, 19).
Internal combustion engine which can be operated with different types of liquid fuels, comprising in particular ethanol, methanol and gasoline, and which has a device which can determine a present type of the liquid fuel, characterized in that at least two different paths (46, 48) on which the liquid fuel can pass into a combustion chamber of the internal combustion engine are provided, and in that said internal combustion engine comprises an open-loop and closed-loop control device which controls, in open-loop and/or closed-loop fashion, the use of the different paths (46, 48) in a manner dependent on the determined type of the liquid fuel.
Use as a solvent of a compound which is obtained by esterification reaction between a C9 fatty acid and C1-C10 straight or branched chain alcohols in formulations selected from paints, printing inks, surface coatings, varnishes, lacquers, enamels and coatings in general, wherein said formulations comprise a resin derived from rosin selected from those belonging either to the family of ROSIN MODIFIED ESTER RESINS or to the family of MALEIC RESINS and mixtures thereof, in an amount higher than 45% by weight.
A method comprising: receiving, at a host bus adapter, HBA, driver executing on a processor, a request to perform an input/output, I/O, command; identifying a logical block address, LBA, location indicated by the request; determining that the LBA location is assigned to a predefined namespace associated with an input/output, I/O, priority level; comparing the namespace to a table to identify an input/output, I/O, submission queue associated with the namespace, wherein the priority level associated with the namespace applies to the I/O submission queue; and adding the I/O command to the I/O submission queue; the method further characterized in that prior to receiving the request, receiving, via a user interface of the HBA driver, user input that specifies: an identifier for the namespace; a range of LBA locations that are assigned to the namespace, wherein the range includes the LBA location; and the priority level associated with the namespace. receiving, at a host bus adapter, HBA, driver executing on a processor, a request to perform an input/output, I/O, command; identifying a logical block address, LBA, location indicated by the request; determining that the LBA location is assigned to a predefined namespace associated with an input/output, I/O, priority level; comparing the namespace to a table to identify an input/output, I/O, submission queue associated with the namespace, wherein the priority level associated with the namespace applies to the I/O submission queue; and adding the I/O command to the I/O submission queue; the method further characterized in that prior to receiving the request, receiving, via a user interface of the HBA driver, user input that specifies: an identifier for the namespace; a range of LBA locations that are assigned to the namespace, wherein the range includes the LBA location; and the priority level associated with the namespace. an identifier for the namespace; a range of LBA locations that are assigned to the namespace, wherein the range includes the LBA location; and the priority level associated with the namespace.
A production method of a 2,4,6-tris(2-hydroxy-3-methyl-4-alkoxyphenyl)-1,3,5-triazine compound represented by the following general formula: [where R represents a C 1-10 alkyl group], comprising: a process of causing 2,4,6-tris(2,4-dihydroxy-3-methylphenyl)-1,3,5-triazine represented by the following formula: to react with an alkylating agent represented by a general formula: RX [where R represents a C 1-10 alkyl group, and X represents a leaving group] in a solvent in presence of a base, characterized in that the solvent consists of alcohol, water or a combination of alcohol and water.
An additive manufacturing "AM" method of preparing a polymeric mold for injection molding, the method comprising: depositing, in layers, a first building material composition that when polymerized results in a first material being a thermosetting or UV-cured polymer having a glass transition temperature "Tg" lower than 80 °C, but no lower than 55 °C. and causing the deposited first building material composition to harden, thereby forming a first portion of the polymeric mold; and depositing, in layers, a second building material composition that when polymerized results in a second material being a thermosetting or UV-cured polymer having a Tg higher than 80 °C and causing the deposited second building material composition to harden, thereby forming a second portion of the polymeric mold, wherein the second portion at least partially covers the first portion and faces a cavity in the polymeric mold. depositing, in layers, a first building material composition that when polymerized results in a first material being a thermosetting or UV-cured polymer having a glass transition temperature "Tg" lower than 80 °C, but no lower than 55 °C. and causing the deposited first building material composition to harden, thereby forming a first portion of the polymeric mold; and depositing, in layers, a second building material composition that when polymerized results in a second material being a thermosetting or UV-cured polymer having a Tg higher than 80 °C and causing the deposited second building material composition to harden, thereby forming a second portion of the polymeric mold, wherein the second portion at least partially covers the first portion and faces a cavity in the polymeric mold.
A device capable of being inserted into the hearth of a fireplace, comprising: a first approximately horizontal portion playing the role of fire dogs comprising at least two first nested and parallel pipes (40, 42, 44), characterized in that it further comprises: a second portion comprising at least one approximately vertical second pipe connected to the outermost of the first pipes and provided with at least one opening capable of emerging in operation into an upper portion of the hearth, the first pipes (40, 42, 44) and the second pipe being arranged to define an air duct snaking between an end of a first central pipe and said at least one opening via passages (46, 48) defined at the ends of the first pipes (40, 42, 44). a first approximately horizontal portion playing the role of fire dogs comprising at least two first nested and parallel pipes (40, 42, 44), characterized in that it further comprises: a second portion comprising at least one approximately vertical second pipe connected to the outermost of the first pipes and provided with at least one opening capable of emerging in operation into an upper portion of the hearth, the first pipes (40, 42, 44) and the second pipe being arranged to define an air duct snaking between an end of a first central pipe and said at least one opening via passages (46, 48) defined at the ends of the first pipes (40, 42, 44). a second portion comprising at least one approximately vertical second pipe connected to the outermost of the first pipes and provided with at least one opening capable of emerging in operation into an upper portion of the hearth, the first pipes (40, 42, 44) and the second pipe being arranged to define an air duct snaking between an end of a first central pipe and said at least one opening via passages (46, 48) defined at the ends of the first pipes (40, 42, 44).
A fabric having improved filtering properties for hot gas filtration comprising a nonwoven fiber mat, said mat having a basis weight of at least 305 grams per square meter (9.0 ounces per square yard) wherein the mat is characterized by a pore size distribution in which the number of pores in a given range as measured by ASTM F316-03 test method is plotted against pore size and the percentage of pores having a size in between 10 and 26 microns is greater than 50% while the percentage of pores having a size of greater than 50 microns is less than 0.5%.
A beverage nucleator system (400, 500) for a supercooled beverage container, comprising: an ultrasonic device with an ultrasonic transmitter; and a frame with the ultrasonic device positioned therein; the frame configured to position a closure of the container in contact with a first surface of the ultrasonic transmitter, characterised in that the first surface of the ultrasonic transmitter comprises a convex surface (406, 502) protruding therefrom to ensure good contact with the top surface of the closure. an ultrasonic device with an ultrasonic transmitter; and a frame with the ultrasonic device positioned therein; the frame configured to position a closure of the container in contact with a first surface of the ultrasonic transmitter, characterised in that the first surface of the ultrasonic transmitter comprises a convex surface (406, 502) protruding therefrom to ensure good contact with the top surface of the closure.
A terminal device (1, 1A, 1B, 1C) comprising: a selection unit configured to select a physical uplink control channel, PUCCH, resource, from a first PUCCH resource on a first serving cell in a first subframe and a second PUCCH resource on a second serving cell in the first subframe; and a transmission unit configured to transmit a scheduling request; wherein the transmission unit is configured to transmit the scheduling request by using the PUCCH resource that has been selected and a PUCCH format 1, in a case that neither transmission of a first Hybrid Automatic Repeat reQuest ACKnowledgement, HARQ-ACK, using a predetermined PUCCH format on the first serving cell nor transmission of a second HARQ-ACK using the predetermined PUCCH format on the second serving cell takes place in the first subframe, wherein in a case that the transmission of the first HARQ-ACK using the predetermined PUCCH format on the first serving cell and the transmission of the second HARQ-ACK using the predetermined PUCCH format on the second serving cell take place in the first subframe, the scheduling request is multiplexed with each of the first HARQ-ACK transmitted by using the predetermined PUCCH format in the first subframe on the first serving cell and the second HARQ-ACK transmitted by using the predetermined PUCCH format in the first subframe on the second serving cell. a selection unit configured to select a physical uplink control channel, PUCCH, resource, from a first PUCCH resource on a first serving cell in a first subframe and a second PUCCH resource on a second serving cell in the first subframe; and a transmission unit configured to transmit a scheduling request; wherein the transmission unit is configured to transmit the scheduling request by using the PUCCH resource that has been selected and a PUCCH format 1, in a case that neither transmission of a first Hybrid Automatic Repeat reQuest ACKnowledgement, HARQ-ACK, using a predetermined PUCCH format on the first serving cell nor transmission of a second HARQ-ACK using the predetermined PUCCH format on the second serving cell takes place in the first subframe, wherein in a case that the transmission of the first HARQ-ACK using the predetermined PUCCH format on the first serving cell and the transmission of the second HARQ-ACK using the predetermined PUCCH format on the second serving cell take place in the first subframe, the scheduling request is multiplexed with each of the first HARQ-ACK transmitted by using the predetermined PUCCH format in the first subframe on the first serving cell and the second HARQ-ACK transmitted by using the predetermined PUCCH format in the first subframe on the second serving cell.