mhurhangee/patent-ind-claim-en huggingface dataset:
Refillable device (10; 100; 200; 300) for packaging cosmetic product, comprising: - a removable container containing cosmetic product, - an outer casing defining a housing for receiving the removable container , the housing for receiving the removable container being open at an outlet in the outer casing , the removable container being attached to the outer casing by an elastic interlocking of complementary reliefs (52, 36; 220, 226; 318, 308), the removable container being reversibly removable from the outer casing , - a lid adapted to seal closed the outlet of the housing in the outer casing , wherein the lid is adapted to be attached to the removable container so as to lock in place the elastic interlocking of the complementary reliefs (52, 36; 220, 226; 318, 308). - a removable container containing cosmetic product, - an outer casing defining a housing for receiving the removable container , the housing for receiving the removable container being open at an outlet in the outer casing , the removable container being attached to the outer casing by an elastic interlocking of complementary reliefs (52, 36; 220, 226; 318, 308), the removable container being reversibly removable from the outer casing , - a lid adapted to seal closed the outlet of the housing in the outer casing ,
A device for holding and centering a candle wick in a container , characterized in that a fixing device for the candle wick is provided and can be separably connected to the container is such a way that it is pivotable relative to the container .
Surfactant composition, consisting of 70 wt%-99.9 wt% sophorolactone, 0-1 wt% sophorolipid acid, less than 0.1 % residual substrate and remainder water.
A rail fixing system for devices which can be fixed to a profile rail , in particular a top hat rail , having a rail fixing arrangement for fixing the rail fixing system to the profile rail , wherein the rail fixing arrangement has a first movable positive-locking connection element , having a system coupling arrangement for fixing to each other rail fixing systems which are arranged on the profile rail beside each other, wherein the system coupling arrangement has a second movable positive-locking connection element and wherein the rail fixing arrangement and the system coupling arrangement have a common movable actuation device which is connected to the first positive-locking connection element and second positive-locking connection element so as to transmit movement, wherein the actuation device is supported on at least one resilient element , wherein the first positive-locking connection element , the second positive-locking connection element and the resilient element are arranged along a straight line (G) which extends in the effective direction (W) of the resilient element , characterised in that the actuation device has at least one rotatable cam and in that a position of the first positive-locking connection element and second positive-locking connection element is dependent on a rotational position of the at least one cam .
A vehicle configured to perform plug-in charging for charging a power storage device mounted in the vehicle with electric power supplied through a charging cable from a charging facility external to the vehicle , the vehicle comprising: an inlet to which a connector of the charging cable is connectable; further comprising: a controller configured to control a supply current from the charging facility such that the supply current does not exceed a maximum allowable current, characterized in the controller being configured to obtain specific information as to whether or not the charging facility is provided with a cooling mechanism for cooling the connector and the inlet , and set the maximum allowable current to be higher when the charging facility is provided with the cooling mechanism than when the charging facility is not provided with the cooling mechanism . a controller configured to control a supply current from the charging facility such that the supply current does not exceed a maximum allowable current, characterized in the controller being configured to obtain specific information as to whether or not the charging facility is provided with a cooling mechanism for cooling the connector and the inlet , and set the maximum allowable current to be higher when the charging facility is provided with the cooling mechanism than when the charging facility is not provided with the cooling mechanism . obtain specific information as to whether or not the charging facility is provided with a cooling mechanism for cooling the connector and the inlet , and set the maximum allowable current to be higher when the charging facility is provided with the cooling mechanism than when the charging facility is not provided with the cooling mechanism .
A message forwarding method performed by a message server, the method comprising: • adding a first attribute tag for some group members in a group (S11); • creating based on the first attribute tag a first subgroup consisting of the some group members (S12); • receiving a subgroup message comprising the first attribute tag and an operation manner for the first attribute tag, wherein the operation manner indicates a forbidding of forbidding the sending of the subgroup message to the group members of the first subgroup (S13); • determining the first subgroup based on the first attribute tag, determining, based on the operation manner, that it is forbidden to send the subgroup message to the group members of the first subgroup, and forwarding the subgroup message to group members, in the group, different to the group members in the first subgroup in response to the determination of the first subgroup and in response to the determination that it is forbidden to send the subgroup message to the group members of the first subgroup (S14). • adding a first attribute tag for some group members in a group (S11); • creating based on the first attribute tag a first subgroup consisting of the some group members (S12); • receiving a subgroup message comprising the first attribute tag and an operation manner for the first attribute tag, wherein the operation manner indicates a forbidding of forbidding the sending of the subgroup message to the group members of the first subgroup (S13); • determining the first subgroup based on the first attribute tag, determining, based on the operation manner, that it is forbidden to send the subgroup message to the group members of the first subgroup, and forwarding the subgroup message to group members, in the group, different to the group members in the first subgroup in response to the determination of the first subgroup and in response to the determination that it is forbidden to send the subgroup message to the group members of the first subgroup (S14).
A method of operating a dosing module for an emissions abatement system, the dosing module including an armature , means for moving the armature and a valve body having an outlet ; wherein, in normal operation, the dosing module has an unblocked condition, in which the armature is moveable between a first position, in which the outlet is closed by the armature , and a second position, in which the armature is spaced apart from the outlet , and wherein, in use, application of electricity to the means for moving the armature at a first level of energy causes the armature to move from the first position to the second position; the method including the steps of: (a) using a dosing control unit to determine that the dosing module is in a blocked condition in which flow of a liquid through the outlet is prevented because movement of the armature in the dosing module is prevented by the formation of urea crystals within the dosing module; (b) applying electricity to the means for moving the armature at a second level of energy that is greater than the first level of energy in order to heat the dosing module and cause the urea crystals to revert to a liquid thereby causing the dosing module to change to the unblocked condition and allowing the armature to move between the first and second positions. (a) using a dosing control unit to determine that the dosing module is in a blocked condition in which flow of a liquid through the outlet is prevented because movement of the armature in the dosing module is prevented by the formation of urea crystals within the dosing module; (b) applying electricity to the means for moving the armature at a second level of energy that is greater than the first level of energy in order to heat the dosing module and cause the urea crystals to revert to a liquid thereby causing the dosing module to change to the unblocked condition and allowing the armature to move between the first and second positions.
A vehicular display device that, in execution of following cruise control with a preceding vehicle ahead of a host vehicle, causes a fixed indication to light up and displays a following mark in a superimposed manner with a following-target preceding vehicle, the fixed indication indicating that the following-target preceding vehicle has been detected, the vehicular display device comprising: a preceding vehicle detector that detects the following-target preceding vehicle; a display setter that sets the fixed indication to light up and sets the following mark to be displayed in a superimposed manner with the following-target preceding vehicle when the following-target preceding vehicle has been detected by the preceding vehicle detector ; a display unit that displays images of the fixed indication and the following mark set by the display setter in a display region provided to be superimposed on a position of a windshield of the host vehicle; and a display controller , wherein, when the following-target preceding vehicle is changed, the display setter sets the following mark to be displayed in a superimposed manner with the changed preceding vehicle, characterized in that the display controller turns off the following mark with the fixed indication kept lighting up when a predetermined period of time elapses from a start of the display of the following mark by the display unit . a preceding vehicle detector that detects the following-target preceding vehicle; a display setter that sets the fixed indication to light up and sets the following mark to be displayed in a superimposed manner with the following-target preceding vehicle when the following-target preceding vehicle has been detected by the preceding vehicle detector ; a display unit that displays images of the fixed indication and the following mark set by the display setter in a display region provided to be superimposed on a position of a windshield of the host vehicle; and a display controller , wherein, when the following-target preceding vehicle is changed, the display setter sets the following mark to be displayed in a superimposed manner with the changed preceding vehicle, characterized in that the display controller turns off the following mark with the fixed indication kept lighting up when a predetermined period of time elapses from a start of the display of the following mark by the display unit .
A process of producing a hydroentangled nonwoven sheet material of natural and/or manmade fibres, comprising: a) providing an aqueous suspension containing short fibres and a surfactant; b) depositing the aqueous suspension on a carrier, c) removing aqueous residue of the aqueous suspension deposited in step b) to form a fibrous web, and subsequently d) hydroentangling the fibrous web, characterised by b') depositing aqueous suspension containing short fibres and surfactant on the surface of the fibrous web formed in step c) at the side not facing the carrier, and c') removing aqueous residue of the aqueous suspension deposited in step b') to form a combined fibrous web before step d). a) providing an aqueous suspension containing short fibres and a surfactant; b) depositing the aqueous suspension on a carrier, c) removing aqueous residue of the aqueous suspension deposited in step b) to form a fibrous web, and subsequently d) hydroentangling the fibrous web, characterised by b') depositing aqueous suspension containing short fibres and surfactant on the surface of the fibrous web formed in step c) at the side not facing the carrier, and c') removing aqueous residue of the aqueous suspension deposited in step b') to form a combined fibrous web before step d).
Process for manufacturing a jointing assembly for medium or high voltage electrical cables, comprising in sequence: - forming a tubular element made from a semi-conductive material; - cutting out of said tubular element a first cylindrical element having a first length and a second cylindrical element having a second length; - machining an end portion of said first cylindrical element and an end portion of said second cylindrical element to provide them with an at least partially rounded profile; - arranging said first cylindrical element at a radially inner surface of an elastomeric sleeve made from a dielectric material and extending about a longitudinal axis (X-X); - arranging said second cylindrical element at a free end portion of said elastomeric sleeve with at least an end portion of said second cylindrical element being arranged at a radially inner surface of said elastomeric sleeve , said second cylindrical element being spaced apart from said first cylindrical element , with the rounded end portion of said second cylindrical element facing the rounded end portion of said first cylindrical element ; - elastically expanding said elastomeric sleeve , said first cylindrical element and said second cylindrical element by inserting at least one removable support element in a radially inner position with respect to said elastomeric sleeve . - forming a tubular element made from a semi-conductive material; - cutting out of said tubular element a first cylindrical element having a first length and a second cylindrical element having a second length; - machining an end portion of said first cylindrical element and an end portion of said second cylindrical element to provide them with an at least partially rounded profile; - arranging said first cylindrical element at a radially inner surface of an elastomeric sleeve made from a dielectric material and extending about a longitudinal axis (X-X); - arranging said second cylindrical element at a free end portion of said elastomeric sleeve with at least an end portion of said second cylindrical element being arranged at a radially inner surface of said elastomeric sleeve , said second cylindrical element being spaced apart from said first cylindrical element , with the rounded end portion of said second cylindrical element facing the rounded end portion of said first cylindrical element ; - elastically expanding said elastomeric sleeve , said first cylindrical element and said second cylindrical element by inserting at least one removable support element in a radially inner position with respect to said elastomeric sleeve .
A W-containing high-nickel ternary cathode material, with a chemical formula of Li a Ni x Co y Mn 1-x-y W b M c O 2 , wherein the high-nickel ternary cathode material comprises both spherical secondary particles and single-crystal particles; there is basically no W inside the single-crystal particles; the spherical secondary particles are doped with W; and in the molecular formula of Li a Ni x Co y Mn 1-x-y W b M c O 2 , 1.00 ≤ a ≤ 1.16, 0.7 < x < 1, 0 < y < 0.3, and 0.002 < b+c < 0.01, and the M is one or more from the group consisting of Zr, Mg, Ti, Al, Si, La, Ba, Sr, Nb, Cr, Mo, Ca, Y, In, Sn, and F; and the high-nickel ternary cathode material has a specific surface area of 0.8 ± 0.3 m 2 /g.
A pigment dispersion comprising a. from 10 to 70% by weight of at least one pigment, b. from 2 to 20% by weight of at least one polar additive, c. from 0 to 20% by weight of at least one dispersant, d. from 0 to 0.3% by weight of at least one thixotropy auxiliary, and e. water, characterised in that it comprises less than 1% by weight of organic solvents. a. from 10 to 70% by weight of at least one pigment, b. from 2 to 20% by weight of at least one polar additive, c. from 0 to 20% by weight of at least one dispersant, d. from 0 to 0.3% by weight of at least one thixotropy auxiliary, and e. water,
A method for producing nanofibrillar cellulose starting from hardwood cellulose pulp, where cellulose is in native form, comprising - prebeating the cellulose pulp by circulating the cellulose pulp in form of aqueous suspension of fibres through a refining gap formed by opposite arrays of refining bars which perform relative movement in the gap, - circulating the cellulose pulp until a beating degree of below 55 ml CSF, preferably 50 ml CSF or less, more preferably 20 ml CSF or less is attained, - forwarding the prebeaten pulp to a disintegration process, wherein - the prebeating comprises prebeating the cellulose pulp in a conical refiner or disc refiner with a specific edge load of 0.5 J/m or below, - disintegrating the prebeaten pulp in a disintegration process to nanofibrillar cellulose until the nanofibrillar cellulose obtained in the disintegration process has - a zero shear viscosity in the range of 100 to 8000 Pa·s, preferably 200- 2000 Pa·s measured at a consistency of 0.5% in water by rotational rheometer, and - a yield stress in the range of 0.5 to 8 Pa, preferably 1-4 Pa, measured at a consistency of 0.5% by rotational rheometer, characterized in that the method comprises - pretreating the cellulose pulp by washing until it has conductivity below 20 μS/cm when measured at 1% consistency, and - after the pretreating, prebeating the cellulose pulp. - prebeating the cellulose pulp by circulating the cellulose pulp in form of aqueous suspension of fibres through a refining gap formed by opposite arrays of refining bars which perform relative movement in the gap, - circulating the cellulose pulp until a beating degree of below 55 ml CSF, preferably 50 ml CSF or less, more preferably 20 ml CSF or less is attained, - forwarding the prebeaten pulp to a disintegration process, wherein - the prebeating comprises prebeating the cellulose pulp in a conical refiner or disc refiner with a specific edge load of 0.5 J/m or below, - disintegrating the prebeaten pulp in a disintegration process to nanofibrillar cellulose until the nanofibrillar cellulose obtained in the disintegration process has - a zero shear viscosity in the range of 100 to 8000 Pa·s, preferably 200- 2000 Pa·s measured at a consistency of 0.5% in water by rotational rheometer, and - a yield stress in the range of 0.5 to 8 Pa, preferably 1-4 Pa, measured at a consistency of 0.5% by rotational rheometer, characterized in that the method comprises - pretreating the cellulose pulp by washing until it has conductivity below 20 μS/cm when measured at 1% consistency, and - after the pretreating, prebeating the cellulose pulp.
A method of operating an image capture device , the method comprising: displaying a real-time image on a display of the image capture device , the real-time image being based on digital image data acquired by a digital image sensor ; receiving a selection of one or more regions within the real-time image; setting, in response to the selection, the one or more regions of the selection as one or more user-defined regions of interest (ROIs) within the real-time image for applying one or more first image acquisition parameters; cancelling the one or more user-defined ROIs and setting one or more default ROIs (325, 335, 340, 345, 350, 360a-h) within the real-time image for applying one or more second image acquisition parameters when a position of the image capture device has changed by an amount which exceeds a threshold amount, the one or more default ROIs (325, 335, 340, 345, 350, 360a-h) being preset prior to the selection of one or more user-defined ROIs, irrespective of the real-time image; and acquiring digital image data by the digital image sensor in accordance with one of the one or more user-defined ROIs and the one or more default ROIs (325, 335, 340, 345, 350, 360a-h). displaying a real-time image on a display of the image capture device , the real-time image being based on digital image data acquired by a digital image sensor ; receiving a selection of one or more regions within the real-time image; setting, in response to the selection, the one or more regions of the selection as one or more user-defined regions of interest (ROIs) within the real-time image for applying one or more first image acquisition parameters; cancelling the one or more user-defined ROIs and setting one or more default ROIs (325, 335, 340, 345, 350, 360a-h) within the real-time image for applying one or more second image acquisition parameters when a position of the image capture device has changed by an amount which exceeds a threshold amount, the one or more default ROIs (325, 335, 340, 345, 350, 360a-h) being preset prior to the selection of one or more user-defined ROIs, irrespective of the real-time image; and acquiring digital image data by the digital image sensor in accordance with one of the one or more user-defined ROIs and the one or more default ROIs (325, 335, 340, 345, 350, 360a-h).
A process for forming components having a cavity with a longitudinal axis of extension using magnetic fields, comprising the steps of: - providing a device for forming components having a cavity, said device comprising a core extending along a central axis (A) and having an outer lateral surface , said core being configured to be fitted into said cavity to carry out a forming operation on said component, said core being configured to be removed out of said cavity after said operation; - placing a metal component on the core ; - carrying out an electromagnetic forming step on said component placed on the core , wherein the electromagnetic forming step comprises the sub step of pushing the component against the outer lateral surface using magnetic fields; - removing said core from said cavity; characterized in that : - said core comprises a plurality of segments in parallel arrangement, said segments being adapted to alternate between a machining configuration in which they are locked together to prepare said core to a machining operation and a removal configuration, in which they are mutually sliding to reduce the diameter of said core and remove it from said cavity; drive means for moving said segments , which are configured to alternate them from the machining configuration to the extraction configuration; wherein the process comprises the additional steps of: - moving the segments into a machining configuration before placing the component on the core ; - moving said segments from the machining configuration to the extraction configuration before removing said core from said cavity. - providing a device for forming components having a cavity, said device comprising a core extending along a central axis (A) and having an outer lateral surface , said core being configured to be fitted into said cavity to carry out a forming operation on said component, said core being configured to be removed out of said cavity after said operation; - placing a metal component on the core ; - carrying out an electromagnetic forming step on said component placed on the core , wherein the electromagnetic forming step comprises the sub step of pushing the component against the outer lateral surface using magnetic fields; - removing said core from said cavity; - said core comprises a plurality of segments in parallel arrangement, said segments being adapted to alternate between a machining configuration in which they are locked together to prepare said core to a machining operation and a removal configuration, in which they are mutually sliding to reduce the diameter of said core and remove it from said cavity; drive means for moving said segments , which are configured to alternate them from the machining configuration to the extraction configuration; - moving the segments into a machining configuration before placing the component on the core ; - moving said segments from the machining configuration to the extraction configuration before removing said core from said cavity.