mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a ceiling element, comprising the following steps: - arranging two ceiling supports on a floor, - connecting a first end region of a ceiling formwork frame to the two ceiling supports in such a way that the ceiling formwork frame is arranged in an intermediate position that is inclined downward from the first end region toward a second end region, - connecting a permanent ceiling panel to the ceiling formwork frame arranged in the intermediate position, - pivoting up the second end region of the ceiling formwork frame together with the permanent ceiling panel, - supporting the second end region of the pivoted-up ceiling formwork frame using at least one further ceiling support and - casting the ceiling element together with the permanent ceiling panel on the ceiling formwork frame. - arranging two ceiling supports on a floor, - connecting a first end region of a ceiling formwork frame to the two ceiling supports in such a way that the ceiling formwork frame is arranged in an intermediate position that is inclined downward from the first end region toward a second end region, - connecting a permanent ceiling panel to the ceiling formwork frame arranged in the intermediate position, - pivoting up the second end region of the ceiling formwork frame together with the permanent ceiling panel, - supporting the second end region of the pivoted-up ceiling formwork frame using at least one further ceiling support and - casting the ceiling element together with the permanent ceiling panel on the ceiling formwork frame.
A method for determining gain for an optical signal, comprising: measuring a first power level comprising an output power level of an optical signal at a first optical node; communicating the optical signal to a second optical node, wherein the optical nodes are in a bidirectional network communicating signals in a first direction and a second direction, and wherein the optical signal communicated from the first node to the second node is communicated in the first direction; communicating the first power level to the second optical node in an optical supervisory channel of the optical signal; receiving the optical signal at the second optical node; measuring a second power level of the optical signal at the second optical node; determining a gain for the optical signal based on the first and second power levels; and communicating the determined gain from the second node to the first node to enable the first node to set a gain for the second direction to match the gain in the first direction determined at the second node. measuring a first power level comprising an output power level of an optical signal at a first optical node; communicating the optical signal to a second optical node, wherein the optical nodes are in a bidirectional network communicating signals in a first direction and a second direction, and wherein the optical signal communicated from the first node to the second node is communicated in the first direction; communicating the first power level to the second optical node in an optical supervisory channel of the optical signal; receiving the optical signal at the second optical node; measuring a second power level of the optical signal at the second optical node; determining a gain for the optical signal based on the first and second power levels; and communicating the determined gain from the second node to the first node to enable the first node to set a gain for the second direction to match the gain in the first direction determined at the second node.
A method of producing shrink sleeve labels, which comprises: - A step of unwinding a feed reel of heat-shrink film; - A step of separating by way of cutting means at least one band of heat-shrink film from said feed reel; - A step of feeding by way of feeding means said at least one band of heat-shrink film to a formation spindle; - A step of winding by way of winding means said band of heat-shrink film around said formation spindle in order to provide a sleeve label, there being provided an overlap region between a first longitudinal end of said band of heat-shrink film in contact with said formation spindle and the second longitudinal end of said band of heat-shrink film, - A step of transferring by way of transferring means said sleeve label that is formed around said formation spindle from said formation spindle to a container to be labeled; said method comprising, between said separating step and said feeding step, a step of interposing a layer of solvent that is deposited by way of a device for dispensing the layer of solvent at said overlap region, between at least one portion of said first longitudinal end and at least one portion of said second longitudinal end, characterized in that said deposited layer of solvent has a thickness comprised between 0.002 mm and 0.035 mm, and in that the method further comprises - A step of verifying the thickness of the layer of solvent deposited at said overlap region. - A step of unwinding a feed reel of heat-shrink film; - A step of separating by way of cutting means at least one band of heat-shrink film from said feed reel; - A step of feeding by way of feeding means said at least one band of heat-shrink film to a formation spindle; - A step of winding by way of winding means said band of heat-shrink film around said formation spindle in order to provide a sleeve label, there being provided an overlap region between a first longitudinal end of said band of heat-shrink film in contact with said formation spindle and the second longitudinal end of said band of heat-shrink film, - A step of transferring by way of transferring means said sleeve label that is formed around said formation spindle from said formation spindle to a container to be labeled; said method comprising, between said separating step and said feeding step, a step of interposing a layer of solvent that is deposited by way of a device for dispensing the layer of solvent at said overlap region, between at least one portion of said first longitudinal end and at least one portion of said second longitudinal end, characterized in that said deposited layer of solvent has a thickness comprised between 0.002 mm and 0.035 mm, and in that the method further comprises - A step of verifying the thickness of the layer of solvent deposited at said overlap region.
An outboard motor, comprising: an exterior cover; an engine room; an engine housed in said engine room formed by said exterior cover; an engine cover covering an upper portion of said exterior cover; and an outside air inlet provided on said engine cover, wherein said outside air inlet is opened to face forward; characterized in that said engine cover has an upwardly projecting protruding portion formed on an upper surface of said engine cover, the protruding portion being provided with said outside air inlet and with an expansion chamber having an inner space separated from said engine room, and in that the expansion chamber and an intake port of a throttle body of said engine are coupled together by a throttle body coupling pipe, wherein a surrounding wall extending to a front around said outside air inlet, and wherein said surrounding wall is formed such that an inner wall surface thereof is formed in a substantially linear shape and an outer wall surface thereof is formed in a curved shape protruding outward, and wherein said protruding portion located posterior to said surrounding wall is formed to exhibit a streamline. an exterior cover; an engine room; an engine housed in said engine room formed by said exterior cover; an engine cover covering an upper portion of said exterior cover; and an outside air inlet provided on said engine cover, wherein said outside air inlet is opened to face forward; characterized in that said engine cover has an upwardly projecting protruding portion formed on an upper surface of said engine cover, the protruding portion being provided with said outside air inlet and with an expansion chamber having an inner space separated from said engine room, and in that the expansion chamber and an intake port of a throttle body of said engine are coupled together by a throttle body coupling pipe,
A tube pump comprising a tube with an at least partly flexible tube portion and a pump element inserted in said tube, where the tube pump is characterized by the pump element comprising a rod element and at least a first and a second non-return valve member positioned a distance apart on said rod element and oriented in a same direction relative to the rod element so as to allow for a fluid flow in the tube through the first valve member, along the rod element,, and through the second valve member, and wherein the at least partly flexible tube portion is positioned between said first and second valve members such that a repeated deformation of said at least partly flexible tube portion acts to alternately close and open the valve members thereby generating a fluid flow through the tube.
A shaving device for skin hairs, comprising: - a skin-contacting structure (4, 5; 104, 105; 204, 205) comprising a skin-contacting surface structure (14, 15; 114, 115; 214, 215) for contacting a portion of skin during shaving of said skin by the shaving device (1; 101; 201); - a cutter (6; 106; 206) for cutting hairs of said skin portion being contacted by said skin-contacting surface structure, said cutting taking place in a hair-cutting area (16; 116; 216) defined by the shaving device; the shaving device being characterized by: - a shape-changing smart material of a class of materials that can reversibly change their shape and/or dimensions in a controlled way as a result of an externally applied electric stimulus and/or as a result of an externally applied thermal stimulus and/or as a result of an externally applied magnetic stimulus and/or as a result of an externally applied chemical stimulus and/or as a result of an externally applied optical stimulus; and - a controller for controlling activation of the shape-changing smart material during use of the shaving device; wherein the shape-changing smart material is configured, arranged and effective to adapt, by means of a change of its shape and/or dimensions, a relative position and/or a relative orientation between at least part of the skin-contacting surface structure and at least part of the hair-cutting area. - a skin-contacting structure (4, 5; 104, 105; 204, 205) comprising a skin-contacting surface structure (14, 15; 114, 115; 214, 215) for contacting a portion of skin during shaving of said skin by the shaving device (1; 101; 201); - a cutter (6; 106; 206) for cutting hairs of said skin portion being contacted by said skin-contacting surface structure, said cutting taking place in a hair-cutting area (16; 116; 216) defined by the shaving device; the shaving device being characterized by: - a shape-changing smart material of a class of materials that can reversibly change their shape and/or dimensions in a controlled way as a result of an externally applied electric stimulus and/or as a result of an externally applied thermal stimulus and/or as a result of an externally applied magnetic stimulus and/or as a result of an externally applied chemical stimulus and/or as a result of an externally applied optical stimulus; and - a shape-changing smart material of a class of materials that can reversibly change their shape and/or dimensions in a controlled way as a result of an externally applied electric stimulus and/or as a result of an externally applied thermal stimulus and/or as a result of an externally applied magnetic stimulus and/or as a result of an externally applied chemical stimulus and/or as a result of an externally applied optical stimulus; and - a controller for controlling activation of the shape-changing smart material during use of the shaving device; wherein the shape-changing smart material is configured, arranged and effective to adapt, by means of a change of its shape and/or dimensions, a relative position and/or a relative orientation between at least part of the skin-contacting surface structure and at least part of the hair-cutting area.
A plug connection for electrically contacting conductor track carriers in vehicle lamps, the plug connection comprising: - a conductor track carrier provided with one or more conductor tracks, - an edge contact plug with a number of contact means corresponding to a number of electrical connections of the conductor track carrier, wherein each of the contact means comprises a clamp with two electrically conductively connected contact rockers arranged opposite each other spaced apart by a specified distance, and wherein at least one connector circuit board of a thickness corresponding to the specified distance between the contact rockers is arranged on the conductor track carrier, which forms a main circuit board, such that conductor tracks of the connector circuit board, which conductor tracks have contact points for electrically contacting with the edge contact plug, are electrically connected to the electrical connections of the main circuit board, wherein the connector circuit board is provided with a number of contact points corresponding to the number of contact means, which contact points are electrically connected to the electrical connections of the conductor track carrier and which are accessible from at least one edge of the connector circuit board for the contact means of the edge contact plug, the connector circuit board is small in comparison to the conductor track carrier, characterised in that the contact points of the connector circuit board and/or the conductor tracks of the connector circuit board, which are electrically connected to the contact points of the connector circuit board, are electrically connected to the electrical connections of the conductor track carrier by soldering, for example using surface-mounting technology or through-hole technology or by means of conductive adhesive. - a conductor track carrier provided with one or more conductor tracks, - an edge contact plug with a number of contact means corresponding to a number of electrical connections of the conductor track carrier,
An image decoding device, comprising: a motion vector decoding unit that decodes a motion vector from encoded data; a refinement unit that performs refinement processing to correct the decoded motion vector; and a predictive signal generation unit that generates a predictive signal on the basis of the corrected motion vector output from the refinement unit, wherein the predictive signal generation unit determines whether or not to perform bi-directional optical flow, BDOF, processing for each block which underwent the refinement processing, on the basis of information calculated in the course of the refinement processing, wherein more specifically the predictive signal generation unit determines, for each of the blocks, that the BDOF processing is not to be performed when a minimum search cost of the refinement processing is less than or equal to a predefined threshold value, wherein the search cost is a sum of absolute differences or any other indicator of the similarity between image signals, calculated in the course of the refinement processing. a motion vector decoding unit that decodes a motion vector from encoded data; a refinement unit that performs refinement processing to correct the decoded motion vector; and a predictive signal generation unit that generates a predictive signal on the basis of the corrected motion vector output from the refinement unit, wherein the predictive signal generation unit determines whether or not to perform bi-directional optical flow, BDOF, processing for each block which underwent the refinement processing, on the basis of information calculated in the course of the refinement processing, wherein more specifically the predictive signal generation unit determines, for each of the blocks, that the BDOF processing is not to be performed when a minimum search cost of the refinement processing is less than or equal to a predefined threshold value, wherein the search cost is a sum of absolute differences or any other indicator of the similarity between image signals, calculated in the course of the refinement processing.
A peptide multimer comprising two or more peptide molecules, wherein each of the two or more peptide molecules comprise the amino acid sequence of SEQ ID NO: 1, and wherein the peptide multimer does not comprise a contiguous sequence of amino acids found in the laminin receptor (SEQ ID NO: 6) other than SEQ ID NO: 1.
A method of establishing a call to or from a user equipment, UE, by an application server in a wireless communication system, the method comprising: transmitting a first message to request a network capability of the UE to a serving node; receiving a second message including information regarding network capability of the UE from the serving node; said method characterised by: transmitting a third message including information regarding whether the UE has a capability of a single radio voice call continuity, SRVCC, to an access transfer control function, ATCF based on the information regarding the network capability of the UE, wherein the information included in the third message is used for determining whether to anchor the call in an access transfer gateway, ATGW. transmitting a first message to request a network capability of the UE to a serving node; receiving a second message including information regarding network capability of the UE from the serving node; said method characterised by: transmitting a third message including information regarding whether the UE has a capability of a single radio voice call continuity, SRVCC, to an access transfer control function, ATCF based on the information regarding the network capability of the UE, wherein the information included in the third message is used for determining whether to anchor the call in an access transfer gateway, ATGW.
A method for detecting and reporting on automated browser agent activity, comprising: employing a means for detecting user information to obtain a metric, measuring a differential based on pattern characteristics for humans and pattern characteristics for automated browser agents, transmitting, via asynchronous HTTP posts, said user information to a server, wherein said server records a finding based on said user information and said differential, and repeating said detecting, measuring, and transmitting, thus compiling a report on human versus automated agent browser activity based on a qualitative evaluation of metrics obtained, the method characterized in that the differential is based on a comparison of said metric to a first control group of pattern characteristics for humans, a comparison of said metric to a second control group of pattern characteristics for automated browser agents, and a comparison of said metric to a third control group of characteristics which are unclear as to whether performed by a human or an automated browser agent, wherein said means for detecting further comprise: inserting a code snippet into a page HTML code before a page is sent to a user's browser and sending said page to a user's browser, wherein said code snippet causes data collection of user information once a user has loaded the page.
A method comprising: accessing a first indicator associated with a first device, wherein the first indicator indicates a security risk level that the first device has been in communication with a risk device; accessing communication information associated with the first device; determining, by a processing device, a second device in communication with the first device based on the communication information; setting a second indicator associated with the second device based on information associated with the first device, wherein the second indicator indicates a security risk level of the second device and is set based on a bandwidth usage associated with communication between the first device and the second device; and storing the second indicator associated with the second device. accessing a first indicator associated with a first device, wherein the first indicator indicates a security risk level that the first device has been in communication with a risk device; accessing communication information associated with the first device; determining, by a processing device, a second device in communication with the first device based on the communication information; setting a second indicator associated with the second device based on information associated with the first device, wherein the second indicator indicates a security risk level of the second device and is set based on a bandwidth usage associated with communication between the first device and the second device; and storing the second indicator associated with the second device.
A composition for forming a coating film, for forming a coating film composed of fibers directly on the skin by an electrostatic spray, the composition comprising the following Components (a), (b), (c), and (d): (a) a polymer having a coating film forming ability, which is at least one selected from the group consisting of a partially saponified polyvinyl alcohol, a low saponified polyvinyl alcohol, a completely saponified polyvinyl alcohol, a polyvinyl butyral resin, a polyurethane resin, a polymethacrylate resin, an oxazoline-modified silicone, a polyvinyl acetal diethylamino acetate, and a polylactic acid; wherein a content of Component (a) is 2.0 mass% or more and 35 mass% or less; (b) one or more volatile substances selected from the group consisting of an alcohol and a ketone, wherein a content of Component (b) is 45 mass% or more and 97 mass% or less; (c) a plasticizer, which is at least one selected from the group consisting of a polyol, a polyoxyalkylene glycol, a glycerin monofatty acid ester, a glycerin difatty acid ester, an N-acyl amino acid ester, ethylhexyl methoxycinnamate, and an alkyl benzoate; wherein a content of Component (c) is 0.50 mass% or more and 30 mass% or less; (d) a feel modifier other than Component (c), which is at least one selected from the group consisting of a silicone oil, a hydrocarbon oil, a palmitic acid ester, an isononanoic acid ester, neopentyl glycol diethylhexanoate, neopentyl glycol dicaprate, and an acyl amino acid diester, wherein a content of Component (d) is 0.50 mass% or more and 40 mass% or less. (a) a polymer having a coating film forming ability, which is at least one selected from the group consisting of a partially saponified polyvinyl alcohol, a low saponified polyvinyl alcohol, a completely saponified polyvinyl alcohol, a polyvinyl butyral resin, a polyurethane resin, a polymethacrylate resin, an oxazoline-modified silicone, a polyvinyl acetal diethylamino acetate, and a polylactic acid; wherein a content of Component (a) is 2.0 mass% or more and 35 mass% or less; (b) one or more volatile substances selected from the group consisting of an alcohol and a ketone, wherein a content of Component (b) is 45 mass% or more and 97 mass% or less; (c) a plasticizer, which is at least one selected from the group consisting of a polyol, a polyoxyalkylene glycol, a glycerin monofatty acid ester, a glycerin difatty acid ester, an N-acyl amino acid ester, ethylhexyl methoxycinnamate, and an alkyl benzoate; wherein a content of Component (c) is 0.50 mass% or more and 30 mass% or less; (d) a feel modifier other than Component (c), which is at least one selected from the group consisting of a silicone oil, a hydrocarbon oil, a palmitic acid ester, an isononanoic acid ester, neopentyl glycol diethylhexanoate, neopentyl glycol dicaprate, and an acyl amino acid diester, wherein a content of Component (d) is 0.50 mass% or more and 40 mass% or less.