mhurhangee/ep-ind-claims huggingface dataset:
A silver thin film spread apparatus by means of deposition of nano metallic silver, the apparatus comprising: a treatment booth formed at one side with an inlet for inputting a substrate, and formed at the other side with an outlet for discharging the substrate; a transfer device formed at a lower side of the treatment booth for transferring the substrate; a spray device formed at an upper side of the treatment booth for spraying a nano metallic silver solution with nano-sized metallic silver particles on a surface of the substrate; a moving device for linearly reciprocating the spray device; and a rotation device formed at the lower side of the treatment booth for rotating the substrate, wherein the spray device includes a plurality of spray guns, and wherein the spray gun includes a main body which is connected with a solution line for introducing the silver solution and an air line for introducing high pressure high temperature air, and two nozzles (305, 306) each mounted at a distal end of the main body, and wherein the two nozzles (305, 306) are each arranged at a predetermined angle, such that the nano metallic silver solution sprayed from the two nozzles meet and hit at a predetermined area to be sprayed in nano particles, and wherein the nozzle has a diameter in the range of 0.5 mm - 1 mm, and wherein the apparatus comprises an air/solution supply device for supplying high pressure air and nano metallic silver solution to the spray gun, and wherein the air/ solution supply device includes an air tank for storing high pressure air, a heating unit connected to the air tank for heating the high pressure air discharged from the air tank to high pressure high temperature air, a solution storage tank comprising the nano metallic silver solution, connected to the heating unit for supplying the high pressure high temperature air, for storing the solution, heating, by the high pressure high temperature air, the nano metallic silver solution to a predetermined temperature, and pumping the nano metallic silver solution, a plurality of spray guns for being supplied with the solution stored in the solution storage tank and with the high pressure high temperature air that has passed the heating unit, and spraying the solution to the surface of the substrate, and a control box connected to the heating unit and to the plurality of spray guns for individually controlling pressure of air supplied to the plurality of spray guns, wherein the control box includes a pressure adjustor adjusting pressure of each spray gun (302a, 302b.... 302n).
A screen providing system, in particular for a printing apparatus having a screen receptacle for a printing screen and a squeegee device associated with the screen receptacle, with a transport device for transporting respectively one printing screen, with at least one screen repository (3, 3_1 - 3_3) having a plurality of screen storage positions, each for receiving one respective printing screen, and in particular with at least one treatment station for treating the printing screens, wherein the transport device supplies the screen repository (3, 3_1 - 3_3), and the at least one treatment station in particular, with printing screens, characterised in that the at least one screen repository has at least one closing element that is displaceable for releasing or closing a case housing the screen storage positions, and in that the at least one screen repository (3_3, 3) has a conditioning device configured to create or maintain a climate in the screen repository (3, 3_3) that prevents drying of any printing mass remaining on a printing screen.
An image processing apparatus, comprising: a limiting unit that limits a reference range to be used for the detection of a motion vector of a current block to be used for intra block copy (Intra BC) prediction utilizing correlativity between regions in a picture, by setting the reference range in the picture excluding a boundary region within a first region which has been encoded, the boundary region being a region along a boundary between the first region and a second region which has not yet been encoded.
A method of providing gas to a work piece surface in a system that uses a beam to process the work piece in the presence of a gas, the system including at least one gas source for providing at least one gas, a beam source for providing a beam, and a needle for injecting gas from the gas source to a local area of the work piece in a vacuum chamber, the method comprising: causing gas to flow from a first gas source to a valve; and directing the gas to the needle to provide the desired flow of gas at the work piece surface; characterized in that before directing the gas to the needle (206, 506), a desired gas flow rate is established by adjusting the gas flow rate while the valve (200, 300, 400, 500) is configured to exhaust the gas through a path that does not lead to the needle. causing gas to flow from a first gas source to a valve; and directing the gas to the needle to provide the desired flow of gas at the work piece surface; characterized in that before directing the gas to the needle (206, 506), a desired gas flow rate is established by adjusting the gas flow rate while the valve (200, 300, 400, 500) is configured to exhaust the gas through a path that does not lead to the needle.
A method for a User Equipment, UE, the method comprising the UE: responsive, at least in part, to an ATtention, AT, command, issued by a device, for touch-sensitive input device action, emulating a meta-navigation gesture for a touch-sensitive input device including a display area and a non-display area; and responsive, at least in part, to an ATtention, AT, command, issued by the device, for orientation information, providing orientation information comprising at least one of: unsolicited result codes, unsolicited ATtention, AT, commands, or unsolicited events; wherein the meta-navigation gesture comprises a gesture having an origin in the non-display area and moving in a direction into the display area, and wherein the direction is determined by the orientation information. responsive, at least in part, to an ATtention, AT, command, issued by a device, for touch-sensitive input device action, emulating a meta-navigation gesture for a touch-sensitive input device including a display area and a non-display area; and responsive, at least in part, to an ATtention, AT, command, issued by the device, for orientation information, providing orientation information comprising at least one of: unsolicited result codes, unsolicited ATtention, AT, commands, or unsolicited events; wherein the meta-navigation gesture comprises a gesture having an origin in the non-display area and moving in a direction into the display area, and wherein the direction is determined by the orientation information.
A method of bonding two layers (13 1, 13 2) of dielectric materials, comprising: - providing a surface of at least one of said layers with microscale- and/or nanoscale-size bonding elements (11, 12) forming contact points of said layers; - bringing said layers into a mutual position according to an intended use; - illuminating said layer whose surface is provided with bonding elements by an incident electromagnetic wave, the propagation direction of which forms an angle comprised between 70° and 110° with said layer, and whose wavelength is selected depending on an absorption spectrum of at least one of materials forming said layers; - generating condensed optical beams within said bonding elements or close to a tip of said bonding elements intended to be in contact with the other layer; - heating and melting said bonding elements and/or said other layer by high-intensity focal spots formed by said generated optical beams; - maintaining said layers into said mutual position until bonding of said layers (13 1, 13 2). - providing a surface of at least one of said layers with microscale- and/or nanoscale-size bonding elements (11, 12) forming contact points of said layers; - bringing said layers into a mutual position according to an intended use; - illuminating said layer whose surface is provided with bonding elements by an incident electromagnetic wave, the propagation direction of which forms an angle comprised between 70° and 110° with said layer, and whose wavelength is selected depending on an absorption spectrum of at least one of materials forming said layers; - generating condensed optical beams within said bonding elements or close to a tip of said bonding elements intended to be in contact with the other layer; - heating and melting said bonding elements and/or said other layer by high-intensity focal spots formed by said generated optical beams; - maintaining said layers into said mutual position until bonding of said layers (13 1, 13 2).
Apparatus for bonding at least two plies (13, 14) of a fibrous web, comprising: a first roller with an outer periphery having a plurality of embossing protuberances being provided on the outer periphery, such first roller being an embossing roller; and a second roller with an outer periphery and being elastic at least in a radial direction and together with the first roller forming a nip through which the at least two plies (13, 14) are to be fed, such second roller being a counter roller or a marrying roller, characterized by hard particles disposed on at least a part of the outer periphery of at least the second roller to form an irregular rough surface, so that the at least two plies (13, 14) are bonded at discrete locations corresponding to at least some of the embossing protuberances and in that the hard particles are also located below the outer periphery of the second roller. a first roller with an outer periphery having a plurality of embossing protuberances being provided on the outer periphery, such first roller being an embossing roller; and a second roller with an outer periphery and being elastic at least in a radial direction and together with the first roller forming a nip through which the at least two plies (13, 14) are to be fed, such second roller being a counter roller or a marrying roller,
A decoder for decoding received media content, for playback in a predetermined media format, said media content having a data format comprising a user data field and a content field, wherein data (20, 38, 58) representative of a trace message is included in said content field of the media content, wherein the trace message characterizes a traced media playback decoder, said decoder further comprising means (22, 32, 40) for rendering in said predetermined media format said trace message represented by said data (20, 38, 58) included in said received media content, wherein the means is configured to decode the trace message and render the trace message in said predetermined media format if the traced media playback decoder characterized by the trace message corresponds to the decoder, wherein the data representative of said trace message comprises a font file included in the content field of said media content, wherein said decoder includes a character generator for generating said trace message using said font file.
A toner comprising: a toner particle; and an external additive containing a strontium titanate particle, wherein: the toner has an average circularity, as determined in accordance with the description, of at least 0.935 and not more than 0.995, the strontium titanate particle has a number-average primary particle diameter, as determined in accordance with the description, of at least 10 nm and not more than 60 nm, the strontium titanate particle has a peak in the range of 39.700° ± 0.150° and a peak in the range of 46.200° ± 0.150° in a CuKα x-ray diffraction spectrum obtained in the 2θ range of at least 10° and not more than 90° where θ is the Bragg angle, and where Sa is an area of the peak at 39.700° ± 0.150° and Sb is an area of the peak at 46.200° ± 0.150°, Sb/Sa is at least 1.80 and not more than 2.30, wherein Sa and Sb are determined in accordance with the description. a toner particle; and an external additive containing a strontium titanate particle, wherein: the toner has an average circularity, as determined in accordance with the description, of at least 0.935 and not more than 0.995, the strontium titanate particle has a number-average primary particle diameter, as determined in accordance with the description, of at least 10 nm and not more than 60 nm, the strontium titanate particle has a peak in the range of 39.700° ± 0.150° and a peak in the range of 46.200° ± 0.150° in a CuKα x-ray diffraction spectrum obtained in the 2θ range of at least 10° and not more than 90° where θ is the Bragg angle, and where Sa is an area of the peak at 39.700° ± 0.150° and Sb is an area of the peak at 46.200° ± 0.150°, Sb/Sa is at least 1.80 and not more than 2.30, wherein Sa and Sb are determined in accordance with the description. the toner has an average circularity, as determined in accordance with the description, of at least 0.935 and not more than 0.995, the strontium titanate particle has a number-average primary particle diameter, as determined in accordance with the description, of at least 10 nm and not more than 60 nm, the strontium titanate particle has a peak in the range of 39.700° ± 0.150° and a peak in the range of 46.200° ± 0.150° in a CuKα x-ray diffraction spectrum obtained in the 2θ range of at least 10° and not more than 90° where θ is the Bragg angle, and where Sa is an area of the peak at 39.700° ± 0.150° and Sb is an area of the peak at 46.200° ± 0.150°, Sb/Sa is at least 1.80 and not more than 2.30, wherein Sa and Sb are determined in accordance with the description.
A shifting drum for the tobacco processing industry with receiving troughs (31, 32) for rod-shaped articles for the tobacco processing industry, in particular filter rods and/or filter pieces and/or segmented products, wherein the shifting drum (20, 120) can be rotated about an axis of rotation, wherein the shifting drum (20, 120) has two rows (R1, R2) arranged next to each other of receiving troughs (31, 32) arranged one behind the other along the transverse axis in the circumferential direction, wherein the shifting drum (20, 120) is configured so that the rod-shaped articles can be shifted or are shifted along the longitudinal axis in the receiving troughs (31; 32) of one row (R1, R2) or in the receiving troughs (31, 32) of both rows (R1, R2) during or upon transporting the rod-shaped articles in the transverse axial direction, wherein the receiving troughs (31, 32) of both rows (R1, R2) each have a groove bottom (41, 51), wherein at least in the region of the ends of the receiving troughs of the first row and the ends of the receiving troughs of the second row which are arranged opposite each other, the radial distance of the groove bottom of the receiving troughs of the first row from the axis of rotation and the radial distance of the groove bottom of the receiving troughs of the second row from the axis of rotation are different, wherein the receiving troughs of the first row, of which the radial distance of the groove bottom of the receiving troughs from the axis of rotation of the shifting drum (20, 120) is greater than the radial distance of the groove bottom of the receiving troughs of the second row from the axis of rotation of the shifting drum (20, 120), are each designed as lateral limiters for the receiving troughs of the second row at least in the region of the ends of the receiving troughs of the first row and the ends of the receiving troughs of the second row which are arranged opposite each other.
A step-climbing attachment for a wheeled chair, the attachment comprising: a first wheel having at least a hub and a rim spaced from the hub, the hub and rim defining an inner region; a second wheel having a different diameter than the first wheel; and the second wheel being rotatably mounted to an extending arm and driven by rotation of the first wheel; the extending arm being rotatable relative to the first wheel between a first position and at least one second position so as to cause the second wheel to at least partially orbit the first wheel, characterised by: a controllable electric motor configured to independently rotate the extending arm between the first position and the second position; wherein the controllable electric motor is housed wholly within the inner region of the first wheel. a first wheel having at least a hub and a rim spaced from the hub, the hub and rim defining an inner region; a second wheel having a different diameter than the first wheel; and the second wheel being rotatably mounted to an extending arm and driven by rotation of the first wheel; the extending arm being rotatable relative to the first wheel between a first position and at least one second position so as to cause the second wheel to at least partially orbit the first wheel, characterised by: a controllable electric motor configured to independently rotate the extending arm between the first position and the second position; wherein the controllable electric motor is housed wholly within the inner region of the first wheel. a controllable electric motor configured to independently rotate the extending arm between the first position and the second position; wherein the controllable electric motor is housed wholly within the inner region of the first wheel.
A method of sensor delivery assembly sterilization, comprising: assembling an analyte sensor (400, 500, 620, 1001) with an analyte sensor insertion device; packaging the assembled analyte sensor (400, 500, 620, 1001) and sensor insertion device in a container, the container including an inner cavity for receiving the assembled analyte sensor (400, 500, 620, 1001) and sensor insertion device; sealing the assembled analyte sensor (400, 500, 620, 1001) and sensor insertion device in the container with a substantially airtight seal; loading a predetermined number of sealed containers into a case; placing one or more simulated or dummy units in any space in the case not filled by the predetermined number of containers; and irradiating the sealed container including the packaged assembled analyte sensor (400, 500, 620, 1001) and sensor insertion device at a predetermined dose using one or more electron beam accelerators (810, 820, 830), wherein the step of irradiating the sealed container comprises irradiating the case including the predetermined number of sealed containers at the predetermined dose. assembling an analyte sensor (400, 500, 620, 1001) with an analyte sensor insertion device; packaging the assembled analyte sensor (400, 500, 620, 1001) and sensor insertion device in a container, the container including an inner cavity for receiving the assembled analyte sensor (400, 500, 620, 1001) and sensor insertion device; sealing the assembled analyte sensor (400, 500, 620, 1001) and sensor insertion device in the container with a substantially airtight seal; loading a predetermined number of sealed containers into a case; placing one or more simulated or dummy units in any space in the case not filled by the predetermined number of containers; and irradiating the sealed container including the packaged assembled analyte sensor (400, 500, 620, 1001) and sensor insertion device at a predetermined dose using one or more electron beam accelerators (810, 820, 830), wherein the step of irradiating the sealed container comprises irradiating the case including the predetermined number of sealed containers at the predetermined dose.
A network connection method, comprising: sending, by a network control element, a first connection parameter to a terminal; and sending, by the network control element, a second connection parameter to a security node, wherein the first connection parameter comprises a first security key and a randomizer; and the second connection parameter comprises a second security key and the randomizer, wherein the first security key and the randomizer are used by the terminal for generating a new security key of the terminal; and the second security key and the randomizer are used by the security node for generating a new security key of the security node; and wherein the new security key of the terminal is used for decrypting data encrypted by using the new security key of the security node, the new security key of the security node is used for decrypting data encrypted by using the new security key of the terminal, and the first connection parameter and the second connection parameter each comprise a security parameter used when the terminal and the security node establish a network connection. sending, by a network control element, a first connection parameter to a terminal; and sending, by the network control element, a second connection parameter to a security node, wherein the first connection parameter comprises a first security key and a randomizer; and the second connection parameter comprises a second security key and the randomizer, wherein the first security key and the randomizer are used by the terminal for generating a new security key of the terminal; and the second security key and the randomizer are used by the security node for generating a new security key of the security node; and the first security key and the randomizer are used by the terminal for generating a new security key of the terminal; and the second security key and the randomizer are used by the security node for generating a new security key of the security node; and wherein the new security key of the terminal is used for decrypting data encrypted by using the new security key of the security node, the new security key of the security node is used for decrypting data encrypted by using the new security key of the terminal, and the first connection parameter and the second connection parameter each comprise a security parameter used when the terminal and the security node establish a network connection.
Lanyard assembly for lifting a rescue apparatus, in particular a rescue stretcher, comprising a lifting gear with fastening means to be fixed at different fastening points of the rescue apparatus, and a rope assembly to connect the lifting gear with a lifting device, wherein said rope assembly comprises a set of rope sections (32,44,46) to be connected serially to one another, each rope section (32,44,46) having a fixed length and a first end being connectable to the lifting device and an opposite second end being connectable to the first end of any other rope section (32,44,46) or to the lifting gear, and each rope section (32,44,46) comprising at least two rope strings guided in parallel within the respective rope section (32,44,46) between its first end and second end, characterized in that all said rope sections (32,44,46) have identical first ends and identical second ends, and in that one of the first ends or second ends comprise at least two carabiners, and the respective other one of the first ends or second ends is connected by said respective rope strings to holes of a plate, the plate comprising engagement holes for receiving said carabiners.
A fast earthing switch device for high-voltage applications comprising a gas-tight casing including, a fixed contact and a movable contact connectable to and unconnectable from the fixed contact, said movable contact being linearly movable between an open position in which it is spaced apart from said fixed contact and a closed position in which it is connected to said fixed contact, and vice-versa, and the gas-tight casing further including an operating mechanism for said movable contact, wherein said operating mechanism comprises an actuating spring actuating a closing operation of said movable contact from said open position to said closed position, at least a driving lever mounted on an operating shaft actuating an opening operation of said movable contact from said closed position to said open position, said driving lever also partially reloading said actuating spring during said opening operation, said operating mechanism further comprising coupling means operatively coupling said driving lever to said movable contact.