mhurhangee/ep-ind-claims huggingface dataset:
A surface treated metal material for burn-in test socket, comprising a metal base material, a lower layer being constituted with Ni or Ni-Co, an intermediate layer formed on the lower layer, the intermediate layer being constituted with Ni-Sn, and an upper layer formed on the intermediate layer, the upper layer being constituted with Ag-Sn, wherein the thickness of the lower layer is 0.05 μm or more and less than 5.00 μm, the thickness of the intermediate layer is 0.01 μm or more and less than 0.40 μm, and the thickness of the upper layer is 0.02 μm or more and less than 1.00 μm characterized in that the surface treated metal material for burn-in test socket having a contact resistance value of 2.0 mΩ or less by being held for 200 hours at 180°C with contacting the surface treated metal material with other metal material(s) from a side of the upper layer, and a diffusion depth of a coating metal element of the other metal material(s) in the surface treated metal material, by being held for 200 hours at 180°C with contacting the surface treated metal material at contact load of 2.4 N with other metal material(s) from a side of the upper layer, is 0.5 μm or less from a surface of the surface treated metal material.
A building brick with a generally parallelepipedal shape, comprising: - at least one cellular structure comprising, into its cells, an insulating material, - two primary faces onto which the cells of the cellular structure come out, and - four secondary faces, characterized in that said cellular structure is made of terracotta, the insulating material is a sand-lime porous material, and at least one secondary face is covered with a layer of said sand-lime porous material, this sand-lime porous material comprising 25 wt.% to 75 wt.% of silica, 75 wt.% to 25 wt.% of calcium hydroxide, and 0 to 5 wit.% of magnesia and having a microstructure composed of nodules and/or crystals as needles so as to leave pores with an average diameter D50 comprised between 0.1 and 10 μm, and such that said porous material has a porosity between 60 and 95 %. - at least one cellular structure comprising, into its cells, an insulating material, - two primary faces onto which the cells of the cellular structure come out, and - four secondary faces, characterized in that said cellular structure is made of terracotta, the insulating material is a sand-lime porous material, and at least one secondary face is covered with a layer of said sand-lime porous material, this sand-lime porous material comprising 25 wt.% to 75 wt.% of silica, 75 wt.% to 25 wt.% of calcium hydroxide, and 0 to 5 wit.% of magnesia and having a microstructure composed of nodules and/or crystals as needles so as to leave pores with an average diameter D50 comprised between 0.1 and 10 μm, and such that said porous material has a porosity between 60 and 95 %.
A control method for a refrigerating and freezing device, the refrigerating and freezing device comprising a cabinet provided with a groove communicating with a surrounding environment and recessed inwards, an electromagnetic wave generation system, a power supply module of the electromagnetic wave generation system being at least partially arranged in the groove, and at least one fan for promoting air of the surrounding environment to flow into the groove, wherein the refrigerating and freezing device further comprises a controller, comprising a processing unit and a storage unit, wherein the control method comprises judging whether a temperature in the groove is less than or equal to a dew point temperature; and if yes, controlling the fan to operate at a first preset rotation speed, wherein after the step of controlling the fan to operate at a first preset rotation speed, the control method further comprises: judging whether the temperature in the groove is greater than or equal to an ambient temperature; and if not, powering on the power supply module to produce heat, and stopping powering on the power supply module when the temperature in the groove is greater than or equal to the ambient temperature. wherein the refrigerating and freezing device further comprises a controller, comprising a processing unit and a storage unit, wherein the control method comprises judging whether a temperature in the groove is less than or equal to a dew point temperature; and if yes, controlling the fan to operate at a first preset rotation speed, wherein after the step of controlling the fan to operate at a first preset rotation speed, the control method further comprises: judging whether the temperature in the groove is greater than or equal to an ambient temperature; and if not, powering on the power supply module to produce heat, and stopping powering on the power supply module when the temperature in the groove is greater than or equal to the ambient temperature. judging whether the temperature in the groove is greater than or equal to an ambient temperature; and if not, powering on the power supply module to produce heat, and stopping powering on the power supply module when the temperature in the groove is greater than or equal to the ambient temperature.
A method comprising: performing an open system pyrolysis of a hydrocarbon source rock sample obtained from a natural system, the hydrocarbon source rock sample comprising hydrocarbon source rocks having an equivalent spherical diameter of substantially at least one centimeter; recovering hydrocarbons released by the hydrocarbon source rock sample in response to the open system pyrolysis; crushing the pyrolyzed hydrocarbon source rock; after crushing the pyrolyzed hydrocarbon source rock, performing a thermo-vaporization on the pyrolyzed hydrocarbon source rock sample on which the open system pyrolysis was performed; recovering hydrocarbons released by the pyrolyzed hydrocarbon source rock sample in response to the thermo-vaporization; and determining a hydrocarbon expulsion efficiency of hydrocarbon source rock in the natural system based on the recovered hydrocarbons released by the hydrocarbon source rock sample in response to the open system pyrolysis and based on the recovered hydrocarbons released by the pyrolyzed hydrocarbon source rock sample in response to thermo-vaporization. performing an open system pyrolysis of a hydrocarbon source rock sample obtained from a natural system, the hydrocarbon source rock sample comprising hydrocarbon source rocks having an equivalent spherical diameter of substantially at least one centimeter; recovering hydrocarbons released by the hydrocarbon source rock sample in response to the open system pyrolysis; crushing the pyrolyzed hydrocarbon source rock; after crushing the pyrolyzed hydrocarbon source rock, performing a thermo-vaporization on the pyrolyzed hydrocarbon source rock sample on which the open system pyrolysis was performed; recovering hydrocarbons released by the pyrolyzed hydrocarbon source rock sample in response to the thermo-vaporization; and determining a hydrocarbon expulsion efficiency of hydrocarbon source rock in the natural system based on the recovered hydrocarbons released by the hydrocarbon source rock sample in response to the open system pyrolysis and based on the recovered hydrocarbons released by the pyrolyzed hydrocarbon source rock sample in response to thermo-vaporization.
A pharmaceutical composition comprising an inhibitor that disrupts the interaction between metadherin (MTDH) and Staphylococcal nuclease domain containing 1 and a pharmaceutically acceptable carrier, excipient or diluent, wherein the inhibitor is a peptide or a fusion protein comprising the peptide linked to one or more polypeptides not generally recognized to be part of the sequence of MTDH, wherein the peptide comprises the amino acid sequence of DWNAPAEEWGN (SEQ ID NO: 5) or a variant thereof, wherein the variant comprises at least one mutation at any position except for the W residues, and wherein the peptide is about 11 to about 22 amino acids long.
Device for measuring shape, position or dimension features of a rotatable machine element, comprising - a mechanically stable machine bed with a linear guide arranged along the machine bed and a linear guide system arranged parallel to the linear guide, - a workpiece holder for receiving the machine element so as to be rotatable around a rotational axis of the machine element, wherein the workpiece holder has at least one clamping means which is received in the linear guide and around which the machine element is rotatable around the rotational axis, - an optical measuring unit having an illumination module and a camera module which is movably arranged at a linear guide system and by which two-dimensional shadow images of the machine element can be captured, this machine element being rotatably arranged between the illumination module and the oppositely located camera module, wherein - the optical measuring unit has an additional mechanical measuring unit having a tactile measuring probe for measuring the machine element in axial direction, characterized in that - the mechanical measuring unit is fixed to the optical measuring unit and has a swiveling device for swiveling the tactile measuring probe in an orthogonal plane relative to the rotational axis of the machine element. - a mechanically stable machine bed with a linear guide arranged along the machine bed and a linear guide system arranged parallel to the linear guide, - a workpiece holder for receiving the machine element so as to be rotatable around a rotational axis of the machine element, wherein the workpiece holder has at least one clamping means which is received in the linear guide and around which the machine element is rotatable around the rotational axis, - an optical measuring unit having an illumination module and a camera module which is movably arranged at a linear guide system and by which two-dimensional shadow images of the machine element can be captured, this machine element being rotatably arranged between the illumination module and the oppositely located camera module, wherein - the optical measuring unit has an additional mechanical measuring unit having a tactile measuring probe for measuring the machine element in axial direction, characterized in that - the mechanical measuring unit is fixed to the optical measuring unit and has a swiveling device for swiveling the tactile measuring probe in an orthogonal plane relative to the rotational axis of the machine element.
A method comprising: providing a first substrate; providing a second substrate, wherein the first substrate comprises a plurality of bump bonds; providing at least one pillar on the first substrate, wherein a thickness of each pillar is less than a thickness of each bump bond of the plurality of bump bonds, the thickness extending along a direction that is normal to a first surface of the first substrate on which the at least one pillar is formed, and wherein the at least one pillar is formed of a material with material hardness of less than approximately 10 GPa; bonding the first substrate to the second substrate, wherein the bonding comprises applying a force between the first substrate and the second substrate to compress the plurality of bump bonds to the same thickness as the thickness of the at least one pillar. providing a first substrate; providing a second substrate, wherein the first substrate comprises a plurality of bump bonds; providing at least one pillar on the first substrate, wherein a thickness of each pillar is less than a thickness of each bump bond of the plurality of bump bonds, the thickness extending along a direction that is normal to a first surface of the first substrate on which the at least one pillar is formed, and wherein the at least one pillar is formed of a material with material hardness of less than approximately 10 GPa; bonding the first substrate to the second substrate, wherein the bonding comprises applying a force between the first substrate and the second substrate to compress the plurality of bump bonds to the same thickness as the thickness of the at least one pillar.
An assembly comprising: - a lightning arrester with an early streamer emission device comprising • an active portion connected to the early streamer emission device to promote the triggering of an upward leader from the active portion, • a down conductor to be grounded, and • a dielectric portion through which the active portion is mounted on the down conductor, the active portion being separated from the down conductor by an air space to form between them an air spark gap through which the lightning current passes from the active portion to the down conductor, - a dielectric protective cover fastened to the lightning arrester to protect the air spark gap against degradation of its dielectric properties by the environment, an upper portion of the protective cover being secured onto the active portion. - a lightning arrester with an early streamer emission device comprising • an active portion connected to the early streamer emission device to promote the triggering of an upward leader from the active portion, • a down conductor to be grounded, and • a dielectric portion through which the active portion is mounted on the down conductor, the active portion being separated from the down conductor by an air space to form between them an air spark gap through which the lightning current passes from the active portion to the down conductor, • an active portion connected to the early streamer emission device to promote the triggering of an upward leader from the active portion, • a down conductor to be grounded, and • a dielectric portion through which the active portion is mounted on the down conductor, the active portion being separated from the down conductor by an air space to form between them an air spark gap through which the lightning current passes from the active portion to the down conductor, - a dielectric protective cover fastened to the lightning arrester to protect the air spark gap against degradation of its dielectric properties by the environment, an upper portion of the protective cover being secured onto the active portion.
Procedure for the obtention of a liquid fertilizer that comprise the following steps: a) shredding the starting material, wherein the starting material comprises: - tomato plants residues, which refers to vegetative parts of the plant left on the ground after harvest - tomato cull and - corn stover, b) mixing the shredded materials tomato plant residues, tomato cull and corn stover in a weight ratio of 0.2:0.5:0.3, respectively, and adding water to the mixture to reach 55-60% moisture level, c) composting the mixture obtained in the previous step b) by maintaining it at a temperature between 55 and 65 °C for a time between 45 days and 3 months, wherein turning operations are performed when the temperature decreases and water is also added during each turning operation to maintain a 55-60% moisture level, d) thermal-alkaline hydrolysis of the compost obtained in the previous step c) by contacting the compost with an alkaline solution at pH 11-13, heated at 121-124 °C and then cooled down to a temperature between 20 and 30 °C, e) separation of the liquid phase from the solids obtained in previous step d), f) concentration of the liquid separated in the previous step e) by evaporation. a) shredding the starting material, wherein the starting material comprises: - tomato plants residues, which refers to vegetative parts of the plant left on the ground after harvest - tomato cull and - corn stover, - tomato plants residues, which refers to vegetative parts of the plant left on the ground after harvest - tomato cull and - corn stover, b) mixing the shredded materials tomato plant residues, tomato cull and corn stover in a weight ratio of 0.2:0.5:0.3, respectively, and adding water to the mixture to reach 55-60% moisture level, c) composting the mixture obtained in the previous step b) by maintaining it at a temperature between 55 and 65 °C for a time between 45 days and 3 months, wherein turning operations are performed when the temperature decreases and water is also added during each turning operation to maintain a 55-60% moisture level, d) thermal-alkaline hydrolysis of the compost obtained in the previous step c) by contacting the compost with an alkaline solution at pH 11-13, heated at 121-124 °C and then cooled down to a temperature between 20 and 30 °C, e) separation of the liquid phase from the solids obtained in previous step d), f) concentration of the liquid separated in the previous step e) by evaporation.
A fluid tube assembly for simultaneous insertion of at least two fluid transporting tubes into openings in a vehicle engine part, comprising a first and a second tube for transporting fluid, each having an end portion (5, 6) with an opening (7, 8) facing in a first direction, and a flexible connector member for connecting the first and second tubes to the vehicle engine part, which flexible connector member comprises a support surface arranged to abut the vehicle engine part, the flexible connector member being attached to a first attachment portion of the first tube and to a second attachment portion of the second tube, wherein the flexible connector member supports the end portions of the first and second tubes in a spaced and essentially parallel relationship, wherein the flexible connector member further comprises: a first support portion which extends from the first attachment portion, at least partly in the first direction, to the support surface, a second support portion which extends from the second attachment portion, at least partly in the first direction, to the support surface, wherein each one of the first and second support portions (15, 16) forms a lever device for enabling adjustment of the distance between the end portions (5, 6) of first and second tubes by flexing of the flexible connector member, and wherein each one of the first and second support portions (15, 16) of the flexible connector member is arranged with a respective clearance (23, 24) in relation to the first and second tubes (3, 4), respectively, and wherein the flexible connector member is fixedly attached to the first and second tubes at the respective first and second attachment portions. a first support portion which extends from the first attachment portion, at least partly in the first direction, to the support surface, a second support portion which extends from the second attachment portion, at least partly in the first direction, to the support surface, wherein each one of the first and second support portions (15, 16) forms a lever device for enabling adjustment of the distance between the end portions (5, 6) of first and second tubes by flexing of the flexible connector member, and wherein each one of the first and second support portions (15, 16) of the flexible connector member is arranged with a respective clearance (23, 24) in relation to the first and second tubes (3, 4), respectively, and wherein the flexible connector member is fixedly attached to the first and second tubes at the respective first and second attachment portions.
A method for automatically annotating recorded video content, the method comprising: (a) executing, on a computing device having a computing environment provided by a computer operating system (100, 200), at least one program operating within the computing environment; (b) recording in a file (104, 204), at the computing device, video display information relating to a video presentation that is a display output of the at least one executing program; (c) detecting, at the computing device, a change of a display state in the computing environment (108, 208) affecting the video presentation by: receiving a notification in a case where the change of the display state triggers a notification to be provided; and querying a current display state of the computing environment and comparing the current display state to a stored record of a previous display state of the computing environment in a case where the change of the display state does not trigger the notification to be provided; and (d) automatically marking (112, 212) the recorded display information in response to the detected change by associating with the recorded display information annotations describing the detected change. (a) executing, on a computing device having a computing environment provided by a computer operating system (100, 200), at least one program operating within the computing environment; (b) recording in a file (104, 204), at the computing device, video display information relating to a video presentation that is a display output of the at least one executing program; (c) detecting, at the computing device, a change of a display state in the computing environment (108, 208) affecting the video presentation by: receiving a notification in a case where the change of the display state triggers a notification to be provided; and querying a current display state of the computing environment and comparing the current display state to a stored record of a previous display state of the computing environment in a case where the change of the display state does not trigger the notification to be provided; and receiving a notification in a case where the change of the display state triggers a notification to be provided; and querying a current display state of the computing environment and comparing the current display state to a stored record of a previous display state of the computing environment in a case where the change of the display state does not trigger the notification to be provided; and (d) automatically marking (112, 212) the recorded display information in response to the detected change by associating with the recorded display information annotations describing the detected change.
A processor, comprising: at least one multiplier unit (185; 220, 230) which can be controlled to operate in a signed, an unsigned, or a mixed sign mode; a plurality of storage locations for storing a first and second operand (310, 320, 330, 340) according to their sign type which can be selectively coupled with said at least one multiplier unit (185; 220); a multiplier unit mode decoder coupled with the multiplier unit (185; 220, 230) which receives location information of the first and second operands (310, 320, 330, 340), wherein the multiplier mode decoder controls the multiplier unit (185; 220, 230) when in the mixed sign mode depending on the location information to operate in a signed mode, an unsigned mode, or a combined signed/unsigned mode.
A compound selected from Formula I: wherein: L is E is n is 2, 3, 4, 5, or 6; m is 2, 3 or 4; and q is 0 or 1. L is E is n is 2, 3, 4, 5, or 6; m is 2, 3 or 4; and q is 0 or 1.
An illumination device, comprising: - an active layer for emitting primary photons (λ p); - a first conversion layer for converting primary photons to photons of a longer first wavelength (λ 1), - a second conversion layer for converting primary photons and/or photons of a first wavelength (λ 1) to photons of a second wavelength (λ 2) that is different from the first wavelength (λ 1), wherein the second conversion layer is separate from the first conversion layer and characterized in that it covers only a part of the emission surface of the first conversion layer, through which emission surface light contributing to the output light of the illumination device finally leaves the first conversion layer, such that a part of the primary photons can leave the illumination device after passing through the first conversion layer but without passing through the second conversion layer. - an active layer for emitting primary photons (λ p); - a first conversion layer for converting primary photons to photons of a longer first wavelength (λ 1), - a second conversion layer for converting primary photons and/or photons of a first wavelength (λ 1) to photons of a second wavelength (λ 2) that is different from the first wavelength (λ 1),