mhurhangee/ep-ind-claims huggingface dataset:
Coordinate measuring machine, comprising: - a base, - at least one guide (7, 8; 29, 30) which is fixed relative to the base and by means of which a movement of a movable part is guided, characterized by - a device which is filled with liquid and made of communicating pipes (17, 18, 19, 20; 36, 37, 38), in which liquid surfaces set in at an equal height in relation to the gravitational field of the Earth, - measurement apparatuses (22, 23; 33, 34, 35), which are assigned to the pipes and which respectively determine the liquid level in the pipe and/or the height difference between the liquid surface and a fixed point (24, 25), which is stationary relative to the guide (7, 8), wherein the coordinate measuring machine is configured to - establish information about the location of the part of the coordinate measuring machine in relation to the coordinate system of the Earth from the determined liquid levels or from changes in the height differences and - use the information obtained from the liquid levels or changes in the height differences for operating the coordinate measuring machine and evaluate and/or correct measurement signals from measuring at least one workpiece with the coordinate measuring machine using the obtained information. - a base, - at least one guide (7, 8; 29, 30) which is fixed relative to the base and by means of which a movement of a movable part is guided, characterized by - a device which is filled with liquid and made of communicating pipes (17, 18, 19, 20; 36, 37, 38), in which liquid surfaces set in at an equal height in relation to the gravitational field of the Earth, - measurement apparatuses (22, 23; 33, 34, 35), which are assigned to the pipes and which respectively determine the liquid level in the pipe and/or the height difference between the liquid surface and a fixed point (24, 25), which is stationary relative to the guide (7, 8), - establish information about the location of the part of the coordinate measuring machine in relation to the coordinate system of the Earth from the determined liquid levels or from changes in the height differences and - use the information obtained from the liquid levels or changes in the height differences for operating the coordinate measuring machine and evaluate and/or correct measurement signals from measuring at least one workpiece with the coordinate measuring machine using the obtained information.
Insulating panel system comprising a first insulating panel, a second insulating panel and a primary tongue and groove connection, wherein the primary tongue and groove connection comprises a first groove and a first tongue, the first groove and the first tongue are formed such that they are positively connectable to each other, the first insulating panel comprises at least one primary tongue front face on which the first tongue is formed, and the second insulating panel comprises at least one primary groove front face on which the first groove is formed, in such a manner that the first insulating panel is positively connectable via the primary tongue and groove connection to the second insulating panel, wherein the first insulating panel comprises a panel top and a panel bottom, the primary tongue front face extends between the panel top and the panel bottom, the first tongue has a first tongue top facing the panel top, and a bevel in which the panel top is beveled towards the tongue top is formed on the panel top in the region of the primary tongue front face, wherein the bevel defines a bevel angle (α) in relation to a first direction perpendicular to the primary tongue front face, and a straight region which in relation to the first direction defines a tongue angle (β) is formed at least in sections on the first tongue top, characterized in that the tongue angle (β) is greater than the bevel angle (α).
Process for the separation of air by cryogenic distillation in which air is purified, cooled and sent to a first distillation column of a column system wherein it is separated into an oxygen enriched liquid and a nitrogen enriched gas, oxygen enriched liquid is sent from the bottom of the first column to a top condenser of a second column operating at a lower pressure than the first column and is partially vaporized, the bottom of the second column is warmed via a bottom reboiler, liquid from the bottom of the second column is sent to an intermediate point of a third column operating at a lower pressure than the second column, nitrogen enriched liquid from the top of the second column is sent to the top of the third column, oxygen rich fluid is removed from the bottom of the third column, characterized in that the oxygen rich fluid is removed as liquid, pressurized and vaporized by heat exchange with air, and in that oxygen enriched liquid from the top condenser of the second column is sent to an intermediate point of the second column to be separated therein.
Method to eliminate fluff from a yarn, comprising a first step in which said yarn is made to transit in a processing zone of a singeing machine in which a source of high intensity energy is positioned in order to carry out a first pass of removing the fluff, and at least a second step in which said yarn, exiting from said processing zone, is picked up again and diverted in order to be made to transit substantially continuously at least a second time inside said processing zone, in proximity to said source of energy, in order to carry out at least a second pass of removing the fluff, characterized in that said second pass occurs in a direction concordant with the first pass, a control and adjustment also being provided of the tension of the yarn in at least one point of the diversion, guide and return path, between the first pass and the second pass.
Lamp holder support for headlamp, in particular of a vehicle, having a ring element with a radial reception surface for the resting on a socket of the lamp and with a tube-shaped lamp carrier body made from an electrically conductive material extending in the installed position of the lamp between an electrically conductive section of a reflector and an electrically conductive housing of a ballast for the lamp, wherein fastening means for the fastening of the lamp in the installed position are assigned to the tube-shaped lamp carrier body, and wherein the tube-shaped lamp carrier body has, on one hand, a multitude of first contact springs arranged over the circumference in a distributed manner on a side facing the reflector and, on the other hand, a multitude of second contact springs arranged over the circumference in a distributed manner on a side facing the ballast, wherein the first contact springs and/ or the second contact springs are arranged in a circular manner around a longitudinal axis of the tube-shaped lamp carrier body, wherein the first contact springs open up radially in the axial direction, or outwards at an acute angle to support the tube-shaped lamp carrier body on an outside surface of the reflector, and wherein the second contact springs run in the radial direction to support the tube-shaped lamp carrier body on a radial wall of the ballast, characterized in that the tube-shaped lamp holder body has at least one recess for the reception of a retaining spring by means of which the lamp can be fastened in the installed position relative to the tube-shaped lamp carrier body and that one cylinder section of the tube-shaped lamp carrier body has at least one snap-fastening element for the detachable fastening of the tube-shaped lamp carrier body on the ring element, wherein the snap-fastening element interacts with a mating snap-fastening element arranged on the outside of the ring element.
A method for producing haploid, dihaploid, polyhaploid and/or doubled haploid plants of the family Cucurbitaceae from isolated microspores, wherein said method comprises: a) culturing isolated microspores to obtain embryos competent for plant regeneration, wherein the microspores have been isolated from plant material of a donor plant of the family Cucurbitaceae; and b) regenerating plants from the embryos; wherein step (a) comprises contacting the microspores with one or more inhibitor of histone deacetylase (HDACi) and one or more polyamine. a) culturing isolated microspores to obtain embryos competent for plant regeneration, wherein the microspores have been isolated from plant material of a donor plant of the family Cucurbitaceae; and b) regenerating plants from the embryos; wherein step (a) comprises contacting the microspores with one or more inhibitor of histone deacetylase (HDACi) and one or more polyamine.
Rail vehicle component group for generating an electronic life history of a machine component, comprising a machine component having a storage unit and at least one control unit, wherein the control unit is adjusted for bidirectional communication with the machine component and the control unit is adjusted so that operating data can be generated, and wherein the storage unit is adjusted at least for bidirectional communication with the control unit, wherein, during operation of the machine component, storage of the operating data generated is provided to generate an electronic life history of the machine component and wherein the storage unit also has an electronic nameplate of the machine component, wherein the machine component has at least one sensor for generating sensor data, wherein the control unit is adjusted, by bidirectional communication with the machine component during operation of the machine component in the control unit, to detect the sensor data and wherein the control unit is adjusted to generate the operating data at least partially using the acquired sensor data, and wherein the storage unit is incorporated in the sensor, and wherein the sensor is mounted on the machine component.
A method of wireless communication operable on a mobile device, comprising: cycling the mobile device between a first DRX cycle off period and a first DRX cycle on period in a first sleep mode of the mobile device; cycling the mobile device between a first DTX cycle off period and a first DTX cycle on period in the first sleep mode; transitioning from the first sleep mode to a second sleep mode; cycling the mobile device between a second DRX off cycle period and a second on DRX cycle on period in the second sleep mode of the mobile device; and cycling the mobile device between a second DTX cycle off period and a second DTX cycle on period in the second sleep mode; monitoring on the mobile device transmission from a base station only during the DRX cycle on periods; and characterised by turning off radio frequency generation of the mobile device during the DTX cycle off periods, wherein the transitioning from the first sleep mode to the second sleep mode comprises transitioning from a light sleep mode to a deep sleep mode if the mobile device does not exchange data with a base station for a predetermined amount of time. cycling the mobile device between a first DRX cycle off period and a first DRX cycle on period in a first sleep mode of the mobile device; cycling the mobile device between a first DTX cycle off period and a first DTX cycle on period in the first sleep mode; cycling the mobile device between a second DRX off cycle period and a second on DRX cycle on period in the second sleep mode of the mobile device; and cycling the mobile device between a second DTX cycle off period and a second DTX cycle on period in the second sleep mode; monitoring on the mobile device transmission from a base station only during the DRX cycle on periods; and characterised by turning off radio frequency generation of the mobile device during the DTX cycle off periods, wherein the transitioning from the first sleep mode to the second sleep mode comprises transitioning from a light sleep mode to a deep sleep mode if the mobile device does not exchange data with a base station for a predetermined amount of time.
Preparation process of functionalized superparamagnetic adsorbents with dimethyldichlorosilane (DMDCLS) as precursor, for removing oil stains from water with a capacity of adsorption in the range 2.0 to 4.0 g of oil/g of adsorbent, the said process comprising: - synthesis of superparamagnetic iron oxide nanoparticles (CoFe 2 O 4) with a spinel crystal structure, using Co 2+ and Fe 3+ metal salts, which may be sulfates, chlorides, nitrates, acetates in a molar concentration range from 0.01 to 1 mol/l and co-precipitation of metal (II/III) ions in a basic aqueous medium having a pH value of 9 to 12, at an elevated temperature, using metal hydroxides, such as NaOH or KOH in a molar range 0.25 to 3.0 mol/L, as a precipitation reagent; - colloidal stabilization of CoFe 2 O 4 nanoparticles in acidic aqueous medium having a pH in the range 2-4; - surface functionalization of nanoparticles using colloidal solution of CoFe 2 O 4 nanoparticles in weight concentration 0.05 to 0.10 g/ml, tetra-alkoxide precursor tetraethoxysilane (TEOS) in the mol ratio R (H 2 O:TEOS) in the range of 40 to 1050 and di-alkoxide precursor dimethyldichlorosilane (DMDCLS) in mol ratio P (TEOS:DMDCLS) in the range from 0.25, 0.5, 1 or 2 with an alcoholic medium that consists of a mixture of lower alcohols namely methanol, ethanol, propanol or butanol in the concentration range 0.1 to 1.0 mol%, the alkaline catalyst ammonia in a concentration range 0.001 to 0.010 mol%, water in the concentration range from 0.005 to 0.10 mol%, and the process parameters, which are: temperature of the reaction is in range 25 °C to 50 °C, reaction time in range of 1 hour to 72 hours, and the pH value of the medium in the range of 2.0 to 11.0. - synthesis of superparamagnetic iron oxide nanoparticles (CoFe 2 O 4) with a spinel crystal structure, using Co 2+ and Fe 3+ metal salts, which may be sulfates, chlorides, nitrates, acetates in a molar concentration range from 0.01 to 1 mol/l and co-precipitation of metal (II/III) ions in a basic aqueous medium having a pH value of 9 to 12, at an elevated temperature, using metal hydroxides, such as NaOH or KOH in a molar range 0.25 to 3.0 mol/L, as a precipitation reagent; - colloidal stabilization of CoFe 2 O 4 nanoparticles in acidic aqueous medium having a pH in the range 2-4; - surface functionalization of nanoparticles using colloidal solution of CoFe 2 O 4 nanoparticles in weight concentration 0.05 to 0.10 g/ml, tetra-alkoxide precursor tetraethoxysilane (TEOS) in the mol ratio R (H 2 O:TEOS) in the range of 40 to 1050 and di-alkoxide precursor dimethyldichlorosilane (DMDCLS) in mol ratio P (TEOS:DMDCLS) in the range from 0.25, 0.5, 1 or 2 with an alcoholic medium that consists of a mixture of lower alcohols namely methanol, ethanol, propanol or butanol in the concentration range 0.1 to 1.0 mol%, the alkaline catalyst ammonia in a concentration range 0.001 to 0.010 mol%, water in the concentration range from 0.005 to 0.10 mol%, and the process parameters, which are: temperature of the reaction is in range 25 °C to 50 °C, reaction time in range of 1 hour to 72 hours, and the pH value of the medium in the range of 2.0 to 11.0.
A magnetic resonance examination system comprising - a cooling client; - a system cooling circuit in thermal correspondence with the cooling client and in thermal correspondence with a heat drain; including - a main pump arranged in the system cooling circuit to drive fluid flow in the system cooling circuit wherein - a heat source is arranged in thermal correspondence with the system cooling circuit - a shut-off valve in the system cooling circuit and upstream or downstream of the cooling client and wherein - the system cooling system has a short-circuit (i) parallel to the shut-off valve and (ii) connecting an inflow channel and an outflow channel of the system cooling circuit and - said heat source is arranged in thermal correspondence with the short-circuit, so that the temperature of cooling fluid inside the short-circuit is affected by the heat source, so that the risk of freezing is reduced. - a cooling client; - a system cooling circuit in thermal correspondence with the cooling client and in thermal correspondence with a heat drain; including - a main pump arranged in the system cooling circuit to drive fluid flow in the system cooling circuit wherein - a heat source is arranged in thermal correspondence with the system cooling circuit - a shut-off valve in the system cooling circuit and upstream or downstream of the cooling client and wherein - the system cooling system has a short-circuit (i) parallel to the shut-off valve and (ii) connecting an inflow channel and an outflow channel of the system cooling circuit and - said heat source is arranged in thermal correspondence with the short-circuit, so that the temperature of cooling fluid inside the short-circuit is affected by the heat source, so that the risk of freezing is reduced. - a main pump arranged in the system cooling circuit to drive fluid flow in the system cooling circuit wherein - a heat source is arranged in thermal correspondence with the system cooling circuit - a shut-off valve in the system cooling circuit and upstream or downstream of the cooling client and wherein - the system cooling system has a short-circuit (i) parallel to the shut-off valve and (ii) connecting an inflow channel and an outflow channel of the system cooling circuit and - said heat source is arranged in thermal correspondence with the short-circuit, so that the temperature of cooling fluid inside the short-circuit is affected by the heat source, so that the risk of freezing is reduced.
An automotive lamp comprising: a light source; a light emitting member that receives light from the light source and emits light; and a support member that supports the light emitting member, wherein the support member includes a translucent light emitting member accommodating unit, the light emitting member accommodating unit includes a recess in which the light emitting member is accommodated, and a light incidence surface and side surfaces of the light emitting member are in contact with the light emitting member accommodating unit in a state in which the light emitting member is accommodated in the recess, characterized in that on a surface of the light emitting member accommodating unit that is in contact with a side surface of the light emitting member a rough surface area is provided, said rough surface area having a surface roughness greater than that of a light incidence surface of the light emitting member accommodating unit. a light source; a light emitting member that receives light from the light source and emits light; and a support member that supports the light emitting member, wherein the support member includes a translucent light emitting member accommodating unit, the light emitting member accommodating unit includes a recess in which the light emitting member is accommodated, and a light incidence surface and side surfaces of the light emitting member are in contact with the light emitting member accommodating unit in a state in which the light emitting member is accommodated in the recess, characterized in that on a surface of the light emitting member accommodating unit that is in contact with a side surface of the light emitting member a rough surface area is provided, said rough surface area having a surface roughness greater than that of a light incidence surface of the light emitting member accommodating unit.
An installation of an electric wire sheathing protection tube which is formed from an insulation resin into a tubular shape, which accommodates an electric wire (w) in an interior thereof and which is fixed to a predetermined position by fixing members, wherein bendable portions which constitute bendable sections and non-bendable straight tube portions which constitute sections which are held into a straight tube shape are provided continuously and alternately along a longitudinal direction of the electric wire sheathing protection tube, a first fixing member which is fixedly attached to a fixed attaching portion provided integrally on at least one section in the non-bendable straight tube portions, characrerized in that it comprises a further fixing member is attached to a slidable attaching portion so as to slide in the longitudinal direction is provided integrally on at least one section in the non-bendable straight tube portions.
A negative electrode material for a lithium secondary battery comprising sulfide glass, including sulfur and the following components (i) and (ii): i. at least one or more elements selected from a group consisting of Sb, Bi, Ge, Cu and Zn; and ii. the element Sn, wherein the ratio in said sulfide glass is sulfur: 40-80 mol %, (i): 1-50 mol % and (ii) 1-50 mol %, respectively. i. at least one or more elements selected from a group consisting of Sb, Bi, Ge, Cu and Zn; and ii. the element Sn, wherein the ratio in said sulfide glass is sulfur: 40-80 mol %, (i): 1-50 mol % and (ii) 1-50 mol %, respectively.
Artificial joint implant having a first bone abutment element, which is placeable or fixable on a first bone (16; 22) or bone part, and a second bone abutment element, which is placeable or fixable on a second bone (18; 24) or bone part, wherein the first and the second bone abutment element (30, 32) are arranged so as to be moveable relative to each other and are articulatedly coupled to each other, wherein the joint implant is formed in one piece, wherein the joint implant comprises at least one flexure joint (68, 70, 138, 142) which articulatedly connects the first and the second bone abutment element (30, 32) to each other, wherein the at least one flexure joint (68, 70, 138, 142) comprises at least one spring element (116, 118, 136), characterized in that the at least one spring element comprises two or more spring members which are wound in an undulating manner and are arranged equidistantly or substantially equidistantly from each other, which two or more spring members are arranged in the circumferential direction of the plate- or disc-shaped bone abutment elements (30, 32) in order to connect bearing elements (64, 66) of the two bone abutment elements (30, 32) to each other.
A method of controlling proliferation of an animal cell, the method comprising: a) genetically modifying one or more endogenous genes in the animal cell selected from the group consisting of Cdk1, Top2A, Cenpa, Birc5, and Eef2, the genetic modification comprising a DNA sequence encoding a negative selectable marker that is transcriptionally linked to a DNA sequence encoding each of the one or more genes, such that the negative selectable marker and the one or more genes are co-expressed; and b) controlling proliferation of the genetically modified animal cell with an inducer of the negative selectable marker. a) genetically modifying one or more endogenous genes in the animal cell selected from the group consisting of Cdk1, Top2A, Cenpa, Birc5, and Eef2, the genetic modification comprising a DNA sequence encoding a negative selectable marker that is transcriptionally linked to a DNA sequence encoding each of the one or more genes, such that the negative selectable marker and the one or more genes are co-expressed; and b) controlling proliferation of the genetically modified animal cell with an inducer of the negative selectable marker.