mhurhangee/ep-ind-claims huggingface dataset:
A wireless device comprising: a wireless circuit unit; and a battery storage room configured to store a battery pack for supplying electric power to the wireless circuit unit, wherein the battery storage room includes a holder to hold battery packs (200a, 200b, 200c), characterized in that the wireless circuit unit further comprises a common casing, wherein both the wireless circuit unit and the storage room are disposed inside the common casing, the battery storage room is configured to store two, three or five cylindrical batteries of the same size, wherein the holder includes: a first holder to hold a first battery pack that combines two of the cylindrical batteries together, and a second holder to hold a second battery pack that combines three of the cylindrical batteries disposed side-by-side together, the second battery pack being placed on an upper part of the first holder, and the first holder and the second holder are configured to hold a third battery pack that combines five of the cylindrical batteries together in which three batteries disposed in one plane are stacked with the other two batteries. a wireless circuit unit; and a battery storage room configured to store a battery pack for supplying electric power to the wireless circuit unit, wherein the battery storage room includes a holder to hold battery packs (200a, 200b, 200c), characterized in that the wireless circuit unit further comprises a common casing, wherein both the wireless circuit unit and the storage room are disposed inside the common casing, the battery storage room is configured to store two, three or five cylindrical batteries of the same size, wherein the holder includes: a first holder to hold a first battery pack that combines two of the cylindrical batteries together, and a second holder to hold a second battery pack that combines three of the cylindrical batteries disposed side-by-side together, the second battery pack being placed on an upper part of the first holder, and a first holder to hold a first battery pack that combines two of the cylindrical batteries together, and a second holder to hold a second battery pack that combines three of the cylindrical batteries disposed side-by-side together, the second battery pack being placed on an upper part of the first holder, and the first holder and the second holder are configured to hold a third battery pack that combines five of the cylindrical batteries together in which three batteries disposed in one plane are stacked with the other two batteries.
A method for manufacturing a structural part from an iron-chrome alloy which precipitates Laves phases and/or Fe bearing particles and/or Cr bearing particles and/or Si bearing particles and/or carbides, the alloy comprising the following composition (in % by weight) Cr 12 - 30% Mn 0.001 - 2.5 % Nb 0.1 - 2% W 0,1 - 5 % Si 0.05 - 1 % C 0.002 - 0.1 % N 0.002 - 0.1 % S max. 0.01 % wherein the alloy can optionally also contain the following elements: La 0.02 - 0.3 % Ti 0.01 - 0.5 %, one or more of the elements Ce, Pr, Ne, Sc, Y, Zr, Hf 0.02 - 0.3 % Al 0.001 - 0.5 % or 2.0 - 6.0 %, one or more of the elements Mg 0.0001 - 0.07 % Ca 0.0001 - 0.07 % P 0.002 - 0.03 %, one or more of the elements Ni, Co, Cu 0.01 - 3.0 % B up to 0.005 % V max. 0.2 % and/or S max. 0.005 % O max. 0.01 % Zn max. 0.01 % Sn max. 0.01 % Pb max. 0.01 % Se max. 0.01 % Te max. 0.01 % Bi max. 0.01 % Sb max. 0.01 % wherein the W content can be completely or partly replaced, in case of need, by at least one of the elements Mo and/or Ta, Fe rest as well as the usual elaboration-related Impurities, in that a semi-finished product made of the alloy is subjected to a thermomechanical treatment, wherein in a first step the alloy is solution annealed at temperatures ≥ the solution annealing temperature, at a temperature ≥ 1050°C for more than 6 minutes or at a temperature ≥ 1060°C for more than 1 minute, followed by a cooling down in stationary protective gas or air, moved (blown) protective gas or air or in water, in a second step a mechanical transformation of the semi-finished product in the range comprised between 0.05 and 99 % is carried out and in a following step Laves phases Fe 2 (M, Si) or Fe 7 (M, Si) 6 and/or Fe bearing particles and/or Cr bearing particles and/or Si bearing particles and/or carbides are precipitated in a targeted and finely distributed manner, in that the structural part manufactured from the transformed semi-finished product is brought by heating up of 0.1°C/min to 1000°C/min to an application temperature comprised between 550°C and 1000°C.
A compound having Formula: wherein, R 1, R 2, R 3, and R 4 are each independently hydrogen, C 1 -C 6 alkyl, C 6 -C 12 aralkyl, or C 1 -C 6 acyl; and R 1 is either above or below the sugar ring; R 6 is a) -(CH 2) x CH 3 where x is an integer selected from 1 to 100; or b) -(CH 2) x CH=CH(CH 2) y CH 3 or -(CH 2) x CH=CH(CH 2) y CH=CH(CH 2) z CH 3 wherein x, y and z are integers independently selected from 1 to 14; R 5 is one of the following formulae, or wherein R 8 is hydrogen, C 1 -C 6 alkyl, C 6 -C 12 aralkyl, or C 1 -C 6 acyl, and R 7 is a linear or branched C 3 -C 100 alkyl; X is -O, N or S; Y is a cleavable or non-cleavable linker group; and Z is a peptide antigen. R 1, R 2, R 3, and R 4 are each independently hydrogen, C 1 -C 6 alkyl, C 6 -C 12 aralkyl, or C 1 -C 6 acyl; and R 1 is either above or below the sugar ring; R 6 is a) -(CH 2) x CH 3 where x is an integer selected from 1 to 100; or b) -(CH 2) x CH=CH(CH 2) y CH 3 or -(CH 2) x CH=CH(CH 2) y CH=CH(CH 2) z CH 3 wherein x, y and z are integers independently selected from 1 to 14; a) -(CH 2) x CH 3 where x is an integer selected from 1 to 100; or b) -(CH 2) x CH=CH(CH 2) y CH 3 or -(CH 2) x CH=CH(CH 2) y CH=CH(CH 2) z CH 3 wherein x, y and z are integers independently selected from 1 to 14; R 5 is one of the following formulae, or wherein R 8 is hydrogen, C 1 -C 6 alkyl, C 6 -C 12 aralkyl, or C 1 -C 6 acyl, and R 7 is a linear or branched C 3 -C 100 alkyl; X is -O, N or S; Y is a cleavable or non-cleavable linker group; and Z is a peptide antigen. wherein R 8 is hydrogen, C 1 -C 6 alkyl, C 6 -C 12 aralkyl, or C 1 -C 6 acyl, and R 7 is a linear or branched C 3 -C 100 alkyl; X is -O, N or S; Y is a cleavable or non-cleavable linker group; and Z is a peptide antigen.
Device for determining a configuration in which either a glenoid component of a shoulder prosthesis is to be implanted on the scapula of a patient, or a glenoid resurfacing tool is to be applied to the scapula of a patient, this device comprising: - mapping means in order to have mapping data relating to the glenoid surface of the scapula, these mapping data being defined in a spatial coordinate system of the scapula, - first determination computer means for, from mapping data supplied by the mapping means, determining geometric characteristics of wear of the glenoid surface, - second determination computer means for, from geometric characteristics of wear supplied by the first determination means, determining the vector characteristics of a resultant of forces responsible for the wear of the glenoid surface, and - third determination computer means for, from the vector characteristics of a resultant of forces supplied by the second determination means, determining either a position of implantation of the glenoid component on the scapula, or a position of application of the resurfacing tool on the scapula, by taking into account the action of said resultant of forces on the articular cooperation between the scapula, respectively prosthesized or resurfaced, and the humerus of the patient. - mapping means in order to have mapping data relating to the glenoid surface of the scapula, these mapping data being defined in a spatial coordinate system of the scapula, - first determination computer means for, from mapping data supplied by the mapping means, determining geometric characteristics of wear of the glenoid surface, - second determination computer means for, from geometric characteristics of wear supplied by the first determination means, determining the vector characteristics of a resultant of forces responsible for the wear of the glenoid surface, and - third determination computer means for, from the vector characteristics of a resultant of forces supplied by the second determination means, determining either a position of implantation of the glenoid component on the scapula, or a position of application of the resurfacing tool on the scapula, by taking into account the action of said resultant of forces on the articular cooperation between the scapula, respectively prosthesized or resurfaced, and the humerus of the patient.
An image processing apparatus capable of connecting to an information processing apparatus via communication means, the image processing apparatus comprising: registration means for registering identification information of the information processing apparatus in association with authentication information for authenticating a user; determination means for acquiring, upon reception of a job from the information processing apparatus via the communication means, the identification information of the information processing apparatus which has transmitted the job, and determine whether or not the identification information corresponding to the acquired identification information is registered in said registration means; automatic log-in means for shifting the image processing apparatus into a log-in state in which the user can use the image processing apparatus by authenticating the user with the authentication information in association with the identification information, in a case where said determination means determines that the identification information is registered; job execution means for executing the job in a case where said log-in means shifts the image processing apparatus into the log-in state; and automatic log-out means for shifting the image processing apparatus into a log-out state in which the user cannot use the image processing apparatus in a case where said job execution means completes executing the job. registration means for registering identification information of the information processing apparatus in association with authentication information for authenticating a user; determination means for acquiring, upon reception of a job from the information processing apparatus via the communication means, the identification information of the information processing apparatus which has transmitted the job, and determine whether or not the identification information corresponding to the acquired identification information is registered in said registration means; automatic log-in means for shifting the image processing apparatus into a log-in state in which the user can use the image processing apparatus by authenticating the user with the authentication information in association with the identification information, in a case where said determination means determines that the identification information is registered; job execution means for executing the job in a case where said log-in means shifts the image processing apparatus into the log-in state; and automatic log-out means for shifting the image processing apparatus into a log-out state in which the user cannot use the image processing apparatus in a case where said job execution means completes executing the job.
Apparatus for additively manufacturing of three-dimensional objects by means of successive layerwise selective irradiation and consolidation of layers of a build material which can be consolidated inside a process chamber of the apparatus by means of an energy beam, wherein the apparatus comprises a suction device adapted to locally suck process gas capable of being loaded with particles and/or residues generated in a manufacturing process from the process chamber of the apparatus, characterized in that the suction device comprises a base body defining an inner suction volume wherein the base body partly houses a suction means rotatably supported around a rotation axis, in particular a central axis, of the suction means, wherein the suction means is adapted to generate a suction stream of process gas within the inner suction volume by rotating around the rotation axis, wherein the suction means is arranged around the inner suction volume.
A method, performed by a radio network node, for operating a wireless device in a wireless network, wherein the wireless device is configured, by higher layer signaling, with a first measurement restriction, MR, configuration for measuring and reporting Channel State Information, CSI, the method comprises: - transmitting a first indication with lower layer signaling, indicating that a second MR configuration for measuring and reporting CSI replaces the first MR configuration for measuring and reporting CSI; wherein the second MR configuration for measuring and reporting CSI is selected from a set of configurations predetermined by an agreement between the network node and the wireless device and wherein an MR configuration for measuring and reporting restricts a time over which the UE performs measurements on non-zero power, NZP, CSI-RS resources. - transmitting a first indication with lower layer signaling, indicating that a second MR configuration for measuring and reporting CSI replaces the first MR configuration for measuring and reporting CSI;
A container holding device for holding one or more containers, each container comprising a top region with a top edge, a bottom edge and an outer diameter d1, a neck region having an outer diameter d2 < d1, a shoulder region and a body region with an outer diameter d3 > d1, wherein the container holding device comprises - a base plate having an upper surface and a bottom surface, wherein the base plate comprises one or more holes having a diameter d4, each hole extending from the upper surface to the bottom surface and having a central symmetry axis L axis orthogonal to said base plate; - two or more holding elements that are located around each hole beneath the bottom surface of the base plate and that are designed in the form of a flexible holding arm that comprises a holding nose that is located at the bottom part of the flexible holding arm; wherein the holding elements are adapted and arranged i) to contact with the holding nose the outer surface of a container that is placed into the container holding device at the bottom edge of the top region, such that the container is hanging in the container holding device in a first position p1 in which the holding elements preferably do not exert any force on the outer surface of the container that is, with respect to said central symmetry axis L axis, radial; and ii) to contact with the holding nose the outer surface of the container in the shoulder region of the container, thereby stabilizing the container if the container is raised upwards in the container holding device towards a second position p2; and wherein d4 ≥ d1. - a base plate having an upper surface and a bottom surface, wherein the base plate comprises one or more holes having a diameter d4, each hole extending from the upper surface to the bottom surface and having a central symmetry axis L axis orthogonal to said base plate; - two or more holding elements that are located around each hole beneath the bottom surface of the base plate and that are designed in the form of a flexible holding arm that comprises a holding nose that is located at the bottom part of the flexible holding arm; i) to contact with the holding nose the outer surface of a container that is placed into the container holding device at the bottom edge of the top region, such that the container is hanging in the container holding device in a first position p1 in which the holding elements preferably do not exert any force on the outer surface of the container that is, with respect to said central symmetry axis L axis, radial; and ii) to contact with the holding nose the outer surface of the container in the shoulder region of the container, thereby stabilizing the container if the container is raised upwards in the container holding device towards a second position p2;
A piezoelectric element comprising: a piezoelectric layer being 3 μm or less in thickness; and an electrode provided above the piezoelectric layer, wherein the piezoelectric layer is made of a piezoelectric material including at least bismuth manganate ferrate and barium titanate, as defined by: xBi(Fe 1-a, Mn a)O 3 - yBaTiO 3, where 0.6<x<1, 0<y<0.40, x+y=1, and 0.01<a<0.10; the piezoelectric layer is preferentially oriented with the plane, the X-ray diffraction peak attributed to the plane is centered at a 2θ angle of 31.80° or more and 32.00° or less, and the piezoelectric layer further includes silicon dioxide, wherein the piezoelectric layer contains silicon dioxide in an amount of 0.5 mol% or more and 5 mol% or less. a piezoelectric layer being 3 μm or less in thickness; and an electrode provided above the piezoelectric layer, wherein the piezoelectric layer is made of a piezoelectric material including at least bismuth manganate ferrate and barium titanate, as defined by: xBi(Fe 1-a, Mn a)O 3 - yBaTiO 3, where 0.6<x<1, 0<y<0.40, x+y=1, and 0.01<a<0.10; the piezoelectric layer is preferentially oriented with the plane, the X-ray diffraction peak attributed to the plane is centered at a 2θ angle of 31.80° or more and 32.00° or less, and the piezoelectric layer further includes silicon dioxide, wherein the piezoelectric layer contains silicon dioxide in an amount of 0.5 mol% or more and 5 mol% or less. xBi(Fe 1-a, Mn a)O 3 - yBaTiO 3, where 0.6<x<1, 0<y<0.40, x+y=1, and 0.01<a<0.10; the piezoelectric layer is preferentially oriented with the plane, the X-ray diffraction peak attributed to the plane is centered at a 2θ angle of 31.80° or more and 32.00° or less, and the piezoelectric layer further includes silicon dioxide, wherein the piezoelectric layer contains silicon dioxide in an amount of 0.5 mol% or more and 5 mol% or less.
A method for burning lime or cement, in which synthesis gas is produced and optionally used together with fossil fuels for burning the lime or cement, characterized in that the proportion of methane in the synthesis gas is more than 12 vol%, preferably more than 14 vol%, and in that the volume ratio of methane to carbon monoxide is at least 6:10, preferably at least 8:10.
A food preparation device comprising: - a tunnel cavity having a prep portion; - a conveyor belt extending through a length of the tunnel cavity; - a cooking controller operably coupled to the prep portion to selectively distribute power to at least a radio frequency capacitive heating source and a cold air source in the prep portion; and - an interface panel, wherein the RF capacitive heating source comprises a ground plate and an anode plate, characterized in that the food preparation device also comprises a cooking portion, wherein the prep portion and the cooking portion are positioned in a linear series in the tunnel cavity, the prep portion comprising a first RF capacitve heating source and the cold air source, the cooking portion comprising a second RF capacitive heating source and a heat source, the cooking controller also being operably coupled to the cooking portion to distribute power to the second RF capacitive heating source and the heat source; the food preparation device further comprising a proximity sensor to sense a distance between the ground plate and the anode plate. - a tunnel cavity having a prep portion; - a conveyor belt extending through a length of the tunnel cavity; - a cooking controller operably coupled to the prep portion to selectively distribute power to at least a radio frequency capacitive heating source and a cold air source in the prep portion; and - an interface panel, wherein the RF capacitive heating source comprises a ground plate and an anode plate, characterized in that the food preparation device also comprises a cooking portion, wherein the prep portion and the cooking portion are positioned in a linear series in the tunnel cavity, the prep portion comprising a first RF capacitve heating source and the cold air source, the cooking portion comprising a second RF capacitive heating source and a heat source, the cooking controller also being operably coupled to the cooking portion to distribute power to the second RF capacitive heating source and the heat source; the food preparation device further comprising a proximity sensor to sense a distance between the ground plate and the anode plate.
A ceramic particulate filter for internal combustion engines, the ceramic particulate filter comprising: a. a ceramic body comprising at least one of cordierite, aluminum titanate, silicon carbide, mullite, and combinations thereof, and a plurality of inlet channels that are open at an inlet face and plugged at an outlet face, a plurality of outlet channels that are plugged at the inlet face and open at the outlet face, and a plurality of porous walls separating the inlet channels from adjacent outlet channels, wherein each of the porous walls has a continuous porous structure capable of trapping particulate matter; b. a first porous catalytic coating comprising a first catalytic material and a porous support material, wherein the first catalytic material is incorporated within the porous support material, wherein the first porous catalytic coating is deposited on an outer surface of the porous walls, rather than in the porous walls, in at least a portion of outlet channels, and wherein each of the inlet channels is in fluid communication with at least one of the outlet channels through the first porous catalytic coating and the porous wall separating the inlet channel from the outlet channel; and c. a second porous catalytic coating deposited over the first porous catalytic coating in the outlet channel, wherein the second porous catalytic coating comprises a second catalytic material that is different from the first catalytic material. wherein the first porous catalytic coating has a macroporosity, i.e., pore sizes greater than 1 μm, in a range from about 15% up to about 70% and a thickness in a range from about 30 μm up to about 400 μm. a. a ceramic body comprising at least one of cordierite, aluminum titanate, silicon carbide, mullite, and combinations thereof, and a plurality of inlet channels that are open at an inlet face and plugged at an outlet face, a plurality of outlet channels that are plugged at the inlet face and open at the outlet face, and a plurality of porous walls separating the inlet channels from adjacent outlet channels, wherein each of the porous walls has a continuous porous structure capable of trapping particulate matter; b. a first porous catalytic coating comprising a first catalytic material and a porous support material, wherein the first catalytic material is incorporated within the porous support material, wherein the first porous catalytic coating is deposited on an outer surface of the porous walls, rather than in the porous walls, in at least a portion of outlet channels, and wherein each of the inlet channels is in fluid communication with at least one of the outlet channels through the first porous catalytic coating and the porous wall separating the inlet channel from the outlet channel; and c. a second porous catalytic coating deposited over the first porous catalytic coating in the outlet channel, wherein the second porous catalytic coating comprises a second catalytic material that is different from the first catalytic material.