mhurhangee/ep-ind-claims huggingface dataset:
A battery pack, comprising: at least one battery module, the battery module including a plurality of secondary batteries; and an electrical equipment plate having a plate shape on which at least two of a battery management system, a current sensor, a relay and a fuse are mounted, the electrical equipment plate being electrically connected to the at least one battery module, wherein at least one bus bar is mounted on the electrical equipment plate, and at least two of the current sensor, the relay and the fuse are electrically connected by the bus bar, wherein a plate protrusion is provided on the electrical equipment plate, a coupling hole is formed in the at least one bus bar, and the plate protrusion is inserted into the coupling hole so that the bus bar is fixed onto the electrical equipment plate, wherein through holes are formed in both terminals of at least one of the current sensor, the relay and the fuse, and the plate protrusion is inserted into the through holes so that both terminals of at least one of the current sensor, the relay and the fuse are connected and fixed to the bus bar, wherein the plate protrusion is firstly inserted into the coupling hole of the bus bar and then inserted into the through hole of at least one of the current sensor, the relay and the fuse. so that the electrical equipment plate 200, the bus bar 350 and the electrical equipment are stacked upwards in order in a portion where the plate protrusion is provided. at least one battery module, the battery module including a plurality of secondary batteries; and an electrical equipment plate having a plate shape on which at least two of a battery management system, a current sensor, a relay and a fuse are mounted, the electrical equipment plate being electrically connected to the at least one battery module, wherein at least one bus bar is mounted on the electrical equipment plate, and at least two of the current sensor, the relay and the fuse are electrically connected by the bus bar, wherein a plate protrusion is provided on the electrical equipment plate, a coupling hole is formed in the at least one bus bar, and the plate protrusion is inserted into the coupling hole so that the bus bar is fixed onto the electrical equipment plate, wherein through holes are formed in both terminals of at least one of the current sensor, the relay and the fuse, and the plate protrusion is inserted into the through holes so that both terminals of at least one of the current sensor, the relay and the fuse are connected and fixed to the bus bar, wherein the plate protrusion is firstly inserted into the coupling hole of the bus bar and then inserted into the through hole of at least one of the current sensor, the relay and the fuse. so that the electrical equipment plate 200, the bus bar 350 and the electrical equipment are stacked upwards in order in a portion where the plate protrusion is provided.
A treated glove comprising a film on the interior surfaces of the glove, the film comprising water, glycerol and a botanical extract, wherein the water is present in an amount ranging from about 30 mg to about 90 mg per glove.
Ceramic layer composite for use for high-temperature applications in corrosive environments, comprising a ceramic substrate of a non-oxide ceramic onto which is deposited a ceramic layer, wherein the ceramic layer has a large specific surface area in the range from 10 m 2 /g to 350 m 2 /g, and wherein another ceramic layer, having low porosity with a pore volume < 10% is applied between the ceramic substrate and the ceramic layer, characterized in that the ceramic layer having the low porosity and the ceramic layer having the large specific surface area are made of the same ceramic.
Arrangement in stock preparation, wherein a machine tank containing stock is linked to a container, and the container is linked to a forming unit, and the container and the forming unit are parts of a forming section of a fiber molding machine, characterized in that between the stock preparation and the forming section there is a water cutoff.
A piezoelectric body film comprising: a perovskite-type oxide represented by Formula, wherein a content q of Nb with respect to the number of all atoms in the perovskite-type oxide and a ratio r of a diffraction peak intensity from a plane to a diffraction peak intensity from a plane of the perovskite-type oxide, which is measured using an X-ray diffraction method, satisfy Expression, Formula A 1+δ [(Zr y Ti 1-y) 1-x Nb x]O z 0.35 ≤ r / q < 0.58 in this case, in Formula, A represents an A site element containing Pb, x and y each independently represent a numerical value of more than 0 and less than 1, standard values of δ and z each are 0 and 3, but these values may deviate from the standard values as long as the perovskite-type oxide has a perovskite structure, and, in Expression, a unit of q is atm%. a perovskite-type oxide represented by Formula, wherein a content q of Nb with respect to the number of all atoms in the perovskite-type oxide and a ratio r of a diffraction peak intensity from a plane to a diffraction peak intensity from a plane of the perovskite-type oxide, which is measured using an X-ray diffraction method, satisfy Expression, Formula A 1+δ [(Zr y Ti 1-y) 1-x Nb x]O z 0.35 ≤ r / q < 0.58
A method of operating an injection system of a motor vehicle, said method comprising the following steps: determining the angular start and duration of several injection pulses within an injection window; carrying out corrections with the determined values by a collision management rule based mechanism upon conflicts between the injections pulses by shifting and/or removing pulses; when doing this, evaluating at every step the applied angular start of injection corrections for each pulse with respect to pressure wave influences upon following injection pulses within the injection window; and recalculating the duration for following injection pulses on the basis of this evaluation, in order for the injection system to deliver the requested fuel mass for each injection pulse, wherein the carried out evaluation consists of comparing the applied angular start of injection corrections with a minimal threshold above which a carried out correction has a hydraulic influence on following injection pulses and recalculating the duration for following injection pulses if the result of the comparison lies above the threshold. determining the angular start and duration of several injection pulses within an injection window; carrying out corrections with the determined values by a collision management rule based mechanism upon conflicts between the injections pulses by shifting and/or removing pulses; when doing this, evaluating at every step the applied angular start of injection corrections for each pulse with respect to pressure wave influences upon following injection pulses within the injection window; and recalculating the duration for following injection pulses on the basis of this evaluation, in order for the injection system to deliver the requested fuel mass for each injection pulse, wherein the carried out evaluation consists of comparing the applied angular start of injection corrections with a minimal threshold above which a carried out correction has a hydraulic influence on following injection pulses and recalculating the duration for following injection pulses if the result of the comparison lies above the threshold.
A process for the preparation of sodium neridronate in crystalline form hemihydrate F, comprising the following steps: a) reacting 6-aminohexanoic acid with a mixture of phosphorous acid and methanesulfonic acid at a temperature in the range from 60 to 80°C, under stirring, until a clear solution is obtained; b) adding phosphorus trichloride to said solution of step (a), under stirring, at a temperature in the range from 60 to 80°C; c) diluting with water the reaction mixture obtained from the previous step (b) and heating said water diluted mixture at a temperature in the range from 80 to 120°C; d) cooling the heated mixture obtained in step (c) up to room temperature, diluting it with water, then slowly adding an aqueous sodium hydroxide solution up to a pH in the range from 4.2 to 4.6, to obtain a neutralized solution; e) bringing the neutralized solution of step (d) up to a temperature of 70°C, then subjecting it to a temperature increase in the range from 70 to 140°C, until evaporation of at least 70% of the initial volume of the neutralized solution of step (d), thus obtaining a suspension to be kept under stirring for at least 1 hour; f) cooling the suspension of step (e) up to a temperature in the range from 5 to 25°C; and g) recovering the crystalline sodium neridronate in hemihydrate form F by filtering the suspension of the previous step (f). a) reacting 6-aminohexanoic acid with a mixture of phosphorous acid and methanesulfonic acid at a temperature in the range from 60 to 80°C, under stirring, until a clear solution is obtained; b) adding phosphorus trichloride to said solution of step (a), under stirring, at a temperature in the range from 60 to 80°C; c) diluting with water the reaction mixture obtained from the previous step (b) and heating said water diluted mixture at a temperature in the range from 80 to 120°C; d) cooling the heated mixture obtained in step (c) up to room temperature, diluting it with water, then slowly adding an aqueous sodium hydroxide solution up to a pH in the range from 4.2 to 4.6, to obtain a neutralized solution; e) bringing the neutralized solution of step (d) up to a temperature of 70°C, then subjecting it to a temperature increase in the range from 70 to 140°C, until evaporation of at least 70% of the initial volume of the neutralized solution of step (d), thus obtaining a suspension to be kept under stirring for at least 1 hour; f) cooling the suspension of step (e) up to a temperature in the range from 5 to 25°C; and g) recovering the crystalline sodium neridronate in hemihydrate form F by filtering the suspension of the previous step (f).
An oxidizing composition for treatment of keratin fibers comprising; (a) at least one anionic associative copolymer, (b) at least one anionic non associative copolymer; (c) at least one peroxide agent; (d) at least one persulfate agent; (e) at least on alkalizing agent; and (f) a carrier medium suitable for hair treatments, wherein the at least one anionic associative copolymer is an acrylate/ beheneth 25 methacrylate copolymer and wherein the at least anionic non-associative copolymer is a copolymer of (meth)acrylic acid and of C 1 -C 6 alkyl (meth)acrylate. (a) at least one anionic associative copolymer, (b) at least one anionic non associative copolymer; (c) at least one peroxide agent; (d) at least one persulfate agent; (e) at least on alkalizing agent; and (f) a carrier medium suitable for hair treatments,
Handheld ballistic shield of a rectangular shape comprising ballistic material, the shield comprising - an impact face; - a rear face; - a first long edge and a second long edge defining the length of the shield; - two short edges defining the width of the shield; - a handle on the rear face for carrying or holding the shield; - connecting means for attaching the handheld ballistic shield to another handheld ballistic shield; wherein - the connecting means comprises a plurality of first hinge members comprising a hinge pin and a plurality of second hinge members comprising a hinge sleeve; - the hinge pins of two or more first hinge members are aligned along a first line, the first line being substantially perpendicular to the two short edges; - the hinge sleeves of two or more second hinge members are aligned along a second line, the second line being substantially perpendicular to the two short edges; - the hinge pins and the hinge sleeves have a corresponding shape that allows the hinge pins of the handheld ballistic shield to fall into the hinge sleeves of another handheld ballistic shield, so that the two handheld ballistic shields are connected to each other; characterized in that - the hinge pins of two or more further first hinge members are aligned along a third line, the third line being substantially perpendicular to the two short edges; - the hinge sleeves of two or more further second hinge members are aligned along a fourth line, the fourth line being substantially perpendicular to the two short edges. - an impact face; - a rear face; - a first long edge and a second long edge defining the length of the shield; - two short edges defining the width of the shield; - a handle on the rear face for carrying or holding the shield; - connecting means for attaching the handheld ballistic shield to another handheld ballistic shield; - the connecting means comprises a plurality of first hinge members comprising a hinge pin and a plurality of second hinge members comprising a hinge sleeve; - the hinge pins of two or more first hinge members are aligned along a first line, the first line being substantially perpendicular to the two short edges; - the hinge sleeves of two or more second hinge members are aligned along a second line, the second line being substantially perpendicular to the two short edges; - the hinge pins and the hinge sleeves have a corresponding shape that allows the hinge pins of the handheld ballistic shield to fall into the hinge sleeves of another handheld ballistic shield, so that the two handheld ballistic shields are connected to each other; - the hinge pins of two or more further first hinge members are aligned along a third line, the third line being substantially perpendicular to the two short edges; - the hinge sleeves of two or more further second hinge members are aligned along a fourth line, the fourth line being substantially perpendicular to the two short edges.
Flexible fluid transportation pipeline, characterized in that it comprises a system for detecting changing of an environmental parameter, comprising: - at least one detection module including an LC resonant circuit sensitive to a change of said environmental parameter, configured to operate, as a function of the value of said environmental parameter, either in a first mode in which said resonant circuit exhibits a resonance frequency lying within a predefined range for which the detection module can be detected by magnetic coupling by excitation in said range, or in a second mode in which said resonant circuit exhibits a resonance frequency outside of said range or an absence of resonance frequency; - a declaration module disposed in proximity to said detection module, configured to communicate contactlessly in near-field mode even in the case of variation of the value of said environmental parameter, and configured to declare the presence of the detection module; characterized in that the LC resonant circuit of the detection module comprises an electrical element in contact with a surrounding fluid and likely to have its electrical properties modified as a function of the value of the environmental parameter in the fluid with which it is in contact. - at least one detection module including an LC resonant circuit sensitive to a change of said environmental parameter, configured to operate, as a function of the value of said environmental parameter, either in a first mode in which said resonant circuit exhibits a resonance frequency lying within a predefined range for which the detection module can be detected by magnetic coupling by excitation in said range, or in a second mode in which said resonant circuit exhibits a resonance frequency outside of said range or an absence of resonance frequency; - a declaration module disposed in proximity to said detection module, configured to communicate contactlessly in near-field mode even in the case of variation of the value of said environmental parameter, and configured to declare the presence of the detection module;
A lid comprising: a body; and an activator connected to the body and movable between an open position and a closed position; a fluid-flow member movably connected to the body, the fluid-flow member having at least a portion of a fluid pathway disposed therein, a first end of the fluid pathway forming at least a portion of a mouthpiece and a second end of the fluid flow pathway being connected to or in fluid communication with an opening in the lid; and a connecting member coupled to each of the activator and the fluid-flow member, wherein the connecting member is pivotally connected to the activator and the connecting member is pivotally connected to the fluid-flow member; wherein: movement of the activator from the closed position to the open position moves the fluid-flow member from a closed position to an open position; movement of the activator from the open position to the closed position moves the fluid-flow member from the open position to the closed position; fluid flow through the fluid pathway is prevented when the fluid-flow member is in the closed position; and the fluid pathway is open when the fluid-flow member is in the open position. a body; and an activator connected to the body and movable between an open position and a closed position; a fluid-flow member movably connected to the body, the fluid-flow member having at least a portion of a fluid pathway disposed therein, a first end of the fluid pathway forming at least a portion of a mouthpiece and a second end of the fluid flow pathway being connected to or in fluid communication with an opening in the lid; and a connecting member coupled to each of the activator and the fluid-flow member, wherein the connecting member is pivotally connected to the activator and the connecting member is pivotally connected to the fluid-flow member; wherein: movement of the activator from the closed position to the open position moves the fluid-flow member from a closed position to an open position; movement of the activator from the open position to the closed position moves the fluid-flow member from the open position to the closed position; fluid flow through the fluid pathway is prevented when the fluid-flow member is in the closed position; and the fluid pathway is open when the fluid-flow member is in the open position. movement of the activator from the closed position to the open position moves the fluid-flow member from a closed position to an open position; movement of the activator from the open position to the closed position moves the fluid-flow member from the open position to the closed position; fluid flow through the fluid pathway is prevented when the fluid-flow member is in the closed position; and the fluid pathway is open when the fluid-flow member is in the open position.
Calixarene derivatives or calixarene based nanostructured systems selected from the group consisting of: compounds of formula: wherein: R = CH3, (CH 2) X CH 3, (CH 2) X OH R 1 = CH3, (CH 2) X CH 3, (CH 2) X OH wherein x= 1-3 n= 4, 6, 8 m= 2-15 and wherein when R = R 1 = CH 3 m is different from 2 - 9, or a compound of formula: R = CH3, (CH 2) X CH 3, (CH 2) X OH R 1 = CH3, (CH 2) X CH 3, (CH 2) X OH x= 1-3 n= 4, 6, 8 m= 2-15 and wherein when R = R 1 = CH 3 m is different from 2 - 9, or a compound of formula:
Installation module for installing at least one domestic appliance in at least one furniture body, the installation module comprising at least one housing device having at least two walls (3, 4, 5, 6) which delimit at least one receiving compartment for the at least one domestic appliance at least in portions, at least one outer dimension (8, 9) of the housing device being adapted to at least one inner dimension (201, 202) of at least one opening of the at least one furniture body, at least one wall (3, 4) of the housing device being designed as a door compartment having at least one forwardly directed opening, at least one door support unit, which is movable at least in portions, for receiving at least one furniture front being arranged in the door compartment, characterised in that the housing device is designed to be foldable at least in portions. the installation module comprising at least one housing device having at least two walls (3, 4, 5, 6) which delimit at least one receiving compartment for the at least one domestic appliance at least in portions, at least one outer dimension (8, 9) of the housing device being adapted to at least one inner dimension (201, 202) of at least one opening of the at least one furniture body, at least one wall (3, 4) of the housing device being designed as a door compartment having at least one forwardly directed opening, at least one door support unit, which is movable at least in portions, for receiving at least one furniture front being arranged in the door compartment, characterised in that the housing device is designed to be foldable at least in portions.
A computer-implemented method for manipulating a virtual three-dimensional object in a virtual 3D space, the method comprising: displaying a representation of the 3D object on a display; determining a non-hemispherical arcball having a surface in the virtual 3D space; associating the non-hemispherical arcball with the representation of the 3D object; detecting a pointing device at a first position and at a second position; projecting the first position of the pointing device onto a first location on the surface of the non-hemispherical arcball; projecting the second position of the pointing device onto a second location on the surface of the non-hemispherical arcball; displaying a rotation of the representation of the 3D object on the display, the rotation based on a path of travel between the first location and the second location along the surface of the non-hemispherical arcball; wherein the non-hemispherical arcball has a base with a circular circumference; and the distance from circle center is given by sqrt(x 2 +y 2) with the sqrt(x 2 +y 2) being in the range of [0,1], the base having a center and the non-hemispherical arcball has a radius that varies as measured from the center of the base to the surface of the non-hemispherical arcball with the surface of the non-hemispherical arcball being described by the equation z = cos((sqrt(x 2 +y 2) a ∗ π/2) and a being a number in the range of [1.2; 1.4]. displaying a representation of the 3D object on a display; determining a non-hemispherical arcball having a surface in the virtual 3D space; associating the non-hemispherical arcball with the representation of the 3D object; detecting a pointing device at a first position and at a second position; projecting the first position of the pointing device onto a first location on the surface of the non-hemispherical arcball; projecting the second position of the pointing device onto a second location on the surface of the non-hemispherical arcball; displaying a rotation of the representation of the 3D object on the display, the rotation based on a path of travel between the first location and the second location along the surface of the non-hemispherical arcball; wherein the non-hemispherical arcball has a base with a circular circumference; and the distance from circle center is given by sqrt(x 2 +y 2) with the sqrt(x 2 +y 2) being in the range of [0,1], the base having a center and the non-hemispherical arcball has a radius that varies as measured from the center of the base to the surface of the non-hemispherical arcball with the surface of the non-hemispherical arcball being described by the equation z = cos((sqrt(x 2 +y 2) a ∗ π/2) and a being a number in the range of [1.2; 1.4].