mhurhangee/ep-ind-claims huggingface dataset:
Method for operating an oven, in particular an industrial oven, equipped with at least one first burner, wherein the burner has connections (20, 21) for fuel and a and is connected with an oven wall opening out into the oven, wherein - in a heating-up phase of the oven the burner is charged with the fuel and air and the combustible mixture formed in this manner is in the burner brought to a reaction and the resulting combustion gases are guided into the oven interior for its heating-up - after reaching a predetermined operating temperature in the oven interior the supply of a first one of the two reaction partners (B or L) to the burner is reduced at least so far that in the burner no reactive mixture is formed, and that the first reaction partner (B or L) no longer supplied to the burner or part of the first reaction partner is supplied via a supply device, distanced from the burner, to the oven, and in the oven interior reacts with the second reaction partner (L or B) still guided into the oven by means of the burner, - characterised in that the supply device is formed by at least one second burner and that in the heating-up phase both burners (14, 15) are charged with fuel and air and the combustion gases resulting during the combustion by means of the burner are guided into the oven interior for its heating-up, and that after reaching the predetermined operating temperature the one burner is charged exclusively with fuel or a combustible fuel-air-mixture having fuel surplus (λ << 1) and the other burner is charged exclusively with air or a combustible air-fuel-mixture having air surplus (λ >> 1). - in a heating-up phase of the oven the burner is charged with the fuel and air and the combustible mixture formed in this manner is in the burner brought to a reaction and the resulting combustion gases are guided into the oven interior for its heating-up - after reaching a predetermined operating temperature in the oven interior the supply of a first one of the two reaction partners (B or L) to the burner is reduced at least so far that in the burner no reactive mixture is formed, and that the first reaction partner (B or L) no longer supplied to the burner or part of the first reaction partner is supplied via a supply device, distanced from the burner, to the oven, and in the oven interior reacts with the second reaction partner (L or B) still guided into the oven by means of the burner, - characterised in that the supply device is formed by at least one second burner and that in the heating-up phase both burners (14, 15) are charged with fuel and air and the combustion gases resulting during the combustion by means of the burner are guided into the oven interior for its heating-up, and that after reaching the predetermined operating temperature the one burner is charged exclusively with fuel or a combustible fuel-air-mixture having fuel surplus (λ << 1) and the other burner is charged exclusively with air or a combustible air-fuel-mixture having air surplus (λ >> 1).
A method performed by an arrangement in a camera network (100, 200) for configuration of a camera which is a replacement for one of a plurality of cameras (102a-e) in thea network (100, 200), comprising the steps of: detecting that a new camera has connected to the network (100, 200); receiving property data of the new camera; accessing, from the network (100, 200), property data of one or more candidate cameras (102d-e) among the plurality of cameras (102a-e), wherein the property data of a camera (202e, 102d-e) comprises at least one from the list of: a coordinate of a geographical position of the camera, a camera model, a camera type, and a camera capability; determining that the new camera is a replacement for a particular camera among the one or more candidate cameras (102d-a) if the property data of the new camera matches the property data of the particular camera; accessing configuration settings corresponding to the particular camera, of which the new camera is a replacement, from the network (100, 200), the configuration settings being settings for controlling the operation of the camera; and configuring the new camera based on the configuration settings corresponding to the particular camera. detecting that a new camera has connected to the network (100, 200); receiving property data of the new camera; accessing, from the network (100, 200), property data of one or more candidate cameras (102d-e) among the plurality of cameras (102a-e), wherein the property data of a camera (202e, 102d-e) comprises at least one from the list of: a coordinate of a geographical position of the camera, a camera model, a camera type, and a camera capability; determining that the new camera is a replacement for a particular camera among the one or more candidate cameras (102d-a) if the property data of the new camera matches the property data of the particular camera; accessing configuration settings corresponding to the particular camera, of which the new camera is a replacement, from the network (100, 200), the configuration settings being settings for controlling the operation of the camera; and configuring the new camera based on the configuration settings corresponding to the particular camera.
An article comprising: a metal substrate of a food or beverage container or a portion thereof; and a coating applied on at least a portion of a major surface of the metal substrate, wherein the coating comprises: a film-forming amount of a polyethe polymer having: one or more segments of the following Formula I: -O-Ar-(R n -Ar) n -O-, wherein: each Ar is independently an aryl or heteroaryl group, each n is independently 0 or 1, R, if present, is a divalent organic group, and the two oxygen atoms are each ether oxygen; and a glass transition temperature (Tg) of at least 70°C; and wherein the coating composition contains less than 100 parts per million (ppm) of bisphenol A and the diglycidyl ether of bisphenol A. a metal substrate of a food or beverage container or a portion thereof; and a coating applied on at least a portion of a major surface of the metal substrate, wherein the coating comprises: a film-forming amount of a polyethe polymer having: one or more segments of the following Formula I: -O-Ar-(R n -Ar) n -O-, wherein: each Ar is independently an aryl or heteroaryl group, each n is independently 0 or 1, R, if present, is a divalent organic group, and the two oxygen atoms are each ether oxygen; and a glass transition temperature (Tg) of at least 70°C; and wherein the coating composition contains less than 100 parts per million (ppm) of bisphenol A and the diglycidyl ether of bisphenol A. wherein the coating comprises: a film-forming amount of a polyethe polymer having: one or more segments of the following Formula I: -O-Ar-(R n -Ar) n -O-, wherein: each Ar is independently an aryl or heteroaryl group, each n is independently 0 or 1, R, if present, is a divalent organic group, and the two oxygen atoms are each ether oxygen; and a glass transition temperature (Tg) of at least 70°C; and a film-forming amount of a polyethe polymer having: one or more segments of the following Formula I: -O-Ar-(R n -Ar) n -O-, wherein: each Ar is independently an aryl or heteroaryl group, each n is independently 0 or 1, R, if present, is a divalent organic group, and the two oxygen atoms are each ether oxygen; and a glass transition temperature (Tg) of at least 70°C; and one or more segments of the following Formula I: -O-Ar-(R n -Ar) n -O-, wherein: each Ar is independently an aryl or heteroaryl group, each n is independently 0 or 1, R, if present, is a divalent organic group, and the two oxygen atoms are each ether oxygen; and wherein: each Ar is independently an aryl or heteroaryl group, each n is independently 0 or 1, R, if present, is a divalent organic group, and the two oxygen atoms are each ether oxygen; and each Ar is independently an aryl or heteroaryl group, each n is independently 0 or 1, R, if present, is a divalent organic group, and the two oxygen atoms are each ether oxygen; and a glass transition temperature (Tg) of at least 70°C; and wherein the coating composition contains less than 100 parts per million (ppm) of bisphenol A and the diglycidyl ether of bisphenol A.
A three-chambered electrolytic cell, comprising: an anode chamber housing an anode; a cathode chamber housing a cathode; an intermediate chamber between the anode and cathode chambers; an anion exchange membrane positioned between the anode and the intermediate chamber; a cation exchange membrane positioned between the cathode and the intermediate chamber; and a support member positioned against both the anion exchange membrane causing the membrane to be in contact with the anode and the cation ex-change membrane causing the membrane to be in contact with the cathode, wherein the support member comprises a porous material; wherein the support member comprises a nonwoven fabric selected from the group consisting of polyester fiber, polypropylene and combinations of the same. an anode chamber housing an anode; a cathode chamber housing a cathode; an intermediate chamber between the anode and cathode chambers; an anion exchange membrane positioned between the anode and the intermediate chamber; a cation exchange membrane positioned between the cathode and the intermediate chamber; and a support member positioned against both the anion exchange membrane causing the membrane to be in contact with the anode and the cation ex-change membrane causing the membrane to be in contact with the cathode, wherein the support member comprises a porous material;
A window for allowing transmission of x-rays, comprising: a) a support structure comprising a support frame defining a perimeter and an aperture; and the support structure further comprising a plurality of ribs comprising a carbon composite material extending across the aperture of the support frame and carried by the support frame; b) openings between the plurality of ribs; and c) a film disposed over, carried by, and spanning the plurality of ribs and disposed over and spanning the openings, and configured to pass radiation therethrough; characterized in that the carbon composite material comprises carbon fibers embedded in a matrix. a) a support structure comprising a support frame defining a perimeter and an aperture; and the support structure further comprising a plurality of ribs comprising a carbon composite material extending across the aperture of the support frame and carried by the support frame; b) openings between the plurality of ribs; and c) a film disposed over, carried by, and spanning the plurality of ribs and disposed over and spanning the openings, and configured to pass radiation therethrough;
A dispenser for absorbent sheet products comprising: a charge collector; and a grounded conductor; whereby the dispenser further comprises an arc gap, the arc gap being defined by facing conductive elements (38a, 38b) separated from one another by a predetermined distance, the arc gap being between the charge collector and said grounded conductor. a charge collector; and a grounded conductor;
A composition comprising (a) one or more omega-3 fatty acids selected from DHA, DPA and EPA, (b) uridine or cytidine or their equivalents, and (c) a methyl donor, for use in the treatment of a prodromal neurological disorder.
A memory member usable with an electrophotographic image forming apparatus, comprising: a base; a storing element (44b1), provided in said base, for storing information; a memory antenna (44b2), provided in said base, capable of sending the information stored in said storing element (44b1) to a main assembly antenna provided in a main assembly of the electrophotographic image forming apparatus, wherein said memory member is formed so as to be mountable to the main assembly of the electrophotographic image forming apparatus; and a sending member (44b11), provided in said base, for sending the information stored in said storing element (44b1) to said memory antenna (44b2); and an outer casing member covering the base, said storing element (44b1), said sending member (44b11) and said memory antenna (44b2), characterized in that said base is mounted to said outer casing member such that said storing element (44b1) is provided on a side of said base not opposed to an upper outer casing portion (44a1) of said outer casing member, and said memory antenna (44b2) is provided on a side of the base opposed to said upper outer casing portion (44a1). a base; a storing element (44b1), provided in said base, for storing information; a memory antenna (44b2), provided in said base, capable of sending the information stored in said storing element (44b1) to a main assembly antenna provided in a main assembly of the electrophotographic image forming apparatus, wherein said memory member is formed so as to be mountable to the main assembly of the electrophotographic image forming apparatus; and a sending member (44b11), provided in said base, for sending the information stored in said storing element (44b1) to said memory antenna (44b2); and an outer casing member covering the base, said storing element (44b1), said sending member (44b11) and said memory antenna (44b2), characterized in that said base is mounted to said outer casing member such that said storing element (44b1) is provided on a side of said base not opposed to an upper outer casing portion (44a1) of said outer casing member, and said memory antenna (44b2) is provided on a side of the base opposed to said upper outer casing portion (44a1).
Profile element for noise protection wall having a first profile section, and a second profile section, wherein the first profile section and the second profile section extend in a first direction and in a second direction substantially vertical to the first direction and wherein the first profile section and/or the second profile section has a plurality of sound-transmission holes (21; 31), wherein the two profile sections (20, 30) are connected or can be connected to one another by positive locking in a third direction which is substantially vertical to the first direction and to the second direction, and wherein the two profile sections (20, 30) then also have positive locking in the second direction, characterised in that both at the first ends (22, 32) with respect to the second direction and at the second ends (28, 38) with respect to the second direction of the first and of the second profile section (20, 30), positive locking is guaranteed along and counter both to the second direction and the third direction.
A reflector device intended in particular to be fixed in a horizontal position at the level of a building opening, comprising: - a plate forming a reflector, - a support element comprising fixing means (220, 230) adapted to receive the plate forming a reflector and allow fixing the reflector plate on the support element, means for supporting the element on an element linked to the structural work of a building and - means, integrated into the support element, for angularly adjusting the inclination of the element about a horizontal axis (O-O) which coincides with a major axis of the plate forming a reflector, with respect to the support means, in order to enable daylight to be optimally captured and returned to the interior of the building, characterized in that the support element is a casing made by folding of a metal sheet around at least one fold line (201, 203, 205, 207) to comprise stiffening means (214, 216) adapted to support the plate in the planar state, without deflection, along its entire length. - a plate forming a reflector, - a support element comprising fixing means (220, 230) adapted to receive the plate forming a reflector and allow fixing the reflector plate on the support element, means for supporting the element on an element linked to the structural work of a building and - means, integrated into the support element, for angularly adjusting the inclination of the element about a horizontal axis (O-O) which coincides with a major axis of the plate forming a reflector, with respect to the support means, in order to enable daylight to be optimally captured and returned to the interior of the building, characterized in that the support element is a casing made by folding of a metal sheet around at least one fold line (201, 203, 205, 207) to comprise stiffening means (214, 216) adapted to support the plate in the planar state, without deflection, along its entire length.
Device, in particular for surgery and interventional radiology, comprising: - an outer sleeve having a rigid tube; and - a mandrel having a rod, the rod being suitable for sliding in the outer sleeve and having a longitudinal groove on the surface of the rod, characterised in that the longitudinal groove extends from the distal end to the proximal end of the rod in order to allow the device to slide on a guide pin, the rod having, on its distal end, a perforating tip formed by a pyramid point with bevels (22, 23, 25) of the distal end of the rod, the distal end of the rod comprising cutting ridges (24, 26, 28) extending from the perforating tip to the edges of the rod, a first cutting ridge being situated on one of the faces of the groove and being more inclined than a second cutting ridge with respect to the axis of the rod. - an outer sleeve having a rigid tube; and - a mandrel having a rod, the rod being suitable for sliding in the outer sleeve and having a longitudinal groove on the surface of the rod, characterised in that the longitudinal groove extends from the distal end to the proximal end of the rod in order to allow the device to slide on a guide pin, the rod having, on its distal end, a perforating tip formed by a pyramid point with bevels (22, 23, 25) of the distal end of the rod, the distal end of the rod comprising cutting ridges (24, 26, 28) extending from the perforating tip to the edges of the rod, a first cutting ridge being situated on one of the faces of the groove and being more inclined than a second cutting ridge with respect to the axis of the rod.
A method for metalizing a substrate, the method comprising the steps of: creating an as-diffused substrate which is suitable for metalization by: heating and applying a voltage across an ion exchange substrate to embed metallic ions from a metallic layer within the ion exchange substrate by a process of ion exchange to create an as-diffused substrate in which the metallic ions are distributed homogeneously across the substrate; and metalizing the as-diffused substrate by: applying a pulsed laser beam to a surface of the as-diffused substrate at or near a concentration of metallic ions such that the energy of the laser causes the conversion of the metallic ions in the as-diffused substrate into metal atoms at or near the point at which the laser pulse is incident upon the as-diffused substrate thereby creating a metalized substrate with a surface pattern defined by the movement of the laser beam across the surface of the as-diffused substrate. heating and applying a voltage across an ion exchange substrate to embed metallic ions from a metallic layer within the ion exchange substrate by a process of ion exchange to create an as-diffused substrate in which the metallic ions are distributed homogeneously across the substrate; and metalizing the as-diffused substrate by: applying a pulsed laser beam to a surface of the as-diffused substrate at or near a concentration of metallic ions such that the energy of the laser causes the conversion of the metallic ions in the as-diffused substrate into metal atoms at or near the point at which the laser pulse is incident upon the as-diffused substrate thereby creating a metalized substrate with a surface pattern defined by the movement of the laser beam across the surface of the as-diffused substrate.
A computing device for detecting unauthorized memory accesses, the computing device comprising: a transactional execution module to (i) execute a code segment identified as suspicious and (ii) detect a transactional abort during execution of the code segment, characterized by: a security support module configured to (i) execute a security support thread concurrently with execution of the code segment, and (ii) access, by the security support thread, a monitored memory location; and an abort handler module to (i) determine whether a security event has occurred in response to detecting the transactional abort, the security event indicative of an unauthorized memory access by the code segment to the monitored memory location and (ii) to report the security event in response to determining that the security event has occurred; wherein to detect the transactional abort comprises to detect a transactional abort caused by a transactional memory conflict between a read instruction of the monitored memory location and a write instruction of the code segment to the monitored memory location; and wherein the security support thread is configured to access the monitored memory location repeatedly by reading the monitored memory location in a loop. a transactional execution module to (i) execute a code segment identified as suspicious and (ii) detect a transactional abort during execution of the code segment, characterized by: a security support module configured to (i) execute a security support thread concurrently with execution of the code segment, and (ii) access, by the security support thread, a monitored memory location; and an abort handler module to (i) determine whether a security event has occurred in response to detecting the transactional abort, the security event indicative of an unauthorized memory access by the code segment to the monitored memory location and (ii) to report the security event in response to determining that the security event has occurred; a security support module configured to (i) execute a security support thread concurrently with execution of the code segment, and (ii) access, by the security support thread, a monitored memory location; and an abort handler module to (i) determine whether a security event has occurred in response to detecting the transactional abort, the security event indicative of an unauthorized memory access by the code segment to the monitored memory location and (ii) to report the security event in response to determining that the security event has occurred; wherein to detect the transactional abort comprises to detect a transactional abort caused by a transactional memory conflict between a read instruction of the monitored memory location and a write instruction of the code segment to the monitored memory location; and wherein the security support thread is configured to access the monitored memory location repeatedly by reading the monitored memory location in a loop.