mhurhangee/patent-ind-claim-en huggingface dataset:
A cosmetic container having a handling portion , the cosmetic container comprising: a body part provided in an open hollow shape, and configured to store a cosmetic product; and a handling portion detachably coupled to an upper side of the body part ; wherein the handling portion comprises: a direction adjusting portion ; a handle portion provided to vertically pass through one side of the direction adjusting portion ; a touch member seating portion formed at a lower end of the handle portion ; and a touch member seated on the touch member seating portion , wherein the direction adjusting portion is made of a soft material so that the handle portion is adjustable up, down, right, and left; and the direction adjusting portion includes a plurality of corrugations that are formed in a vertical or lateral direction, characterized in that : when the corrugations are formed in the vertical direction, a height (H or h) of ridges of the corrugations decreases from an inner side to an outer side; and when the corrugations are formed in the lateral direction, a width (W) of the corrugations increases from an upper side to a lower side. a body part provided in an open hollow shape, and configured to store a cosmetic product; and a handling portion detachably coupled to an upper side of the body part ; wherein the handling portion comprises: a direction adjusting portion ; a handle portion provided to vertically pass through one side of the direction adjusting portion ; a touch member seating portion formed at a lower end of the handle portion ; and a touch member seated on the touch member seating portion , wherein the direction adjusting portion is made of a soft material so that the handle portion is adjustable up, down, right, and left; and the direction adjusting portion includes a plurality of corrugations that are formed in a vertical or lateral direction, characterized in that : when the corrugations are formed in the vertical direction, a height (H or h) of ridges of the corrugations decreases from an inner side to an outer side; and when the corrugations are formed in the lateral direction, a width (W) of the corrugations increases from an upper side to a lower side. when the corrugations are formed in the vertical direction, a height (H or h) of ridges of the corrugations decreases from an inner side to an outer side; and when the corrugations are formed in the lateral direction, a width (W) of the corrugations increases from an upper side to a lower side.
A cathodically depositable aqueous electrodeposition coating material comprising (a) at least one epoxide-amine adduct, (b) at least one pigment and/or at least one filler, and (c) at least one crosslinking agent, characterized in that a fraction of at least 25 wt% of the crosslinking agent (c), based on the total weight of the crosslinking agent (c), is formed by at least one tris(alkoxycarbonylamino)-1,3,5-triazine and any remaining fraction is formed by at least one crosslinking agent which is different from the at least one tris(alkoxycarbonylamino)-1,3,5-triazine and is selected from the group consisting of blocked polyisocyanates, amino resins, and mixtures thereof. (a) at least one epoxide-amine adduct, (b) at least one pigment and/or at least one filler, and (c) at least one crosslinking agent,
A method of forming a decorative nonwoven scrim laminate for vehicle flooring, comprising: affixing a first side of a first nonwoven to a first side of a polymeric sheet, wherein said first nonwoven has a thickness in the range of 0.1 mm to 6.0 mm and an areal density of 60 g/m 2 to 200 g/m 2 and said polymeric sheet has a thickness in the range of 0.1 mm to 4.0 mm and an areal density in the range of 30 g/m 2 to 5000 g/m 2 , depositing a colorant selected from an ink, paint or pigment dye on the surface of a second side of said first nonwoven at a thickness of 0.01 mm to 0.3 mm; depositing a topical coating over said colorant and said second side of said first nonwoven at a thickness of 0.1 mm to 3.0 mm and a coating weight of 15 g/m 2 to 340 g/m 2 ; affixing a second nonwoven to a second side of said polymeric sheet, wherein said second nonwoven has a thickness of 0.1 mm to 12.0 mm and an areal density of 15 g/m 2 to 1200 g/m 2 ; and wherein said laminate with said colorant has a minimum fade resistance ranking of 4 in a xenon test system at 225 kJ/m 2 to 451 kJ/m 2 as measured by ISO 105-A02/AATCC evaluation Procedure 1 and wherein said vehicle flooring has a Taber abrasion of 15,000 cycles using an H18 wheel and 1000 gm weight according to ASTM D3884 or SAE J1530. affixing a first side of a first nonwoven to a first side of a polymeric sheet, wherein said first nonwoven has a thickness in the range of 0.1 mm to 6.0 mm and an areal density of 60 g/m 2 to 200 g/m 2 and said polymeric sheet has a thickness in the range of 0.1 mm to 4.0 mm and an areal density in the range of 30 g/m 2 to 5000 g/m 2 , depositing a colorant selected from an ink, paint or pigment dye on the surface of a second side of said first nonwoven at a thickness of 0.01 mm to 0.3 mm; depositing a topical coating over said colorant and said second side of said first nonwoven at a thickness of 0.1 mm to 3.0 mm and a coating weight of 15 g/m 2 to 340 g/m 2 ; affixing a second nonwoven to a second side of said polymeric sheet, wherein said second nonwoven has a thickness of 0.1 mm to 12.0 mm and an areal density of 15 g/m 2 to 1200 g/m 2 ; and wherein said laminate with said colorant has a minimum fade resistance ranking of 4 in a xenon test system at 225 kJ/m 2 to 451 kJ/m 2 as measured by ISO 105-A02/AATCC evaluation Procedure 1 and wherein said vehicle flooring has a Taber abrasion of 15,000 cycles using an H18 wheel and 1000 gm weight according to ASTM D3884 or SAE J1530.
A device for measuring the power consumption, measuring a real power transmitted by the power line , the power line comprising a first power wire and a second power wire , the device for measuring the power consumption comprising a detecting unit and a calculating unit , the calculating unit electrically coupling to the detecting unit , the calculating unit obtaining a power factor according to a sensing voltage signal (SV) and a sensing current signal (SI) generated by the detecting unit , the calculating unit obtaining the real power according to the sensing voltage signal (SV), the sensing current signal (SI) and the power factor, the detecting unit having an electric field detector and a magnetic field detector , used for being disposed adjacent to the first power wire and the second power wire , wherein the electric field detector has a first electrode and a second electrode , the magnetic field detector has a first coil and a second coil ; wherein the first electrode and the first power wire create a first voltage level (V1) at the first electrode according to capacitive effect, the second electrode and the second power wire create a second voltage level (V2) at the second electrode according to capacitive effect, the sensing voltage signal (SV) is the potential difference between the first voltage level (V1) and the second voltage level (V2); characterized in that the first coil and the second coil are respectively disposed at a position above the first electrode and the second electrode ; and in that the first electrode and the second electrode are respectively disposed at a position above and adjacent to the first power wire and the second power wire , and in that the first coil and the second coil are respectively disposed at a position above and adjacent to the first power wire and the second power wire , winding direction of the first coil is contrary to winding direction of the second coil , the first coil and the second coil are coupled in series based on the same sensing current direction for obtaining the sensing current signal (SI) corresponding to the currents on the first power wire and the second power wire .
A surgical instrument , comprising: a body extending along an axis and having a first working end spaced from a second working end along the axis , wherein the first working end is configured to transmit a force to a surgical device in a direction about the axis and the second working end includes an open-ended wrench configured to transmit a force to a surgical device in a direction generally transverse to the axis, characterized in that the first working end includes a hex drive socket configured to transmit a force to a delivery unit in a direction about the axis for tightening the delivery unit to a fenestrated screw assembly and in that the open-ended wrench is configured to transmit a force to the delivery unit in a direction generally transverse to the axis. a body extending along an axis and having a first working end spaced from a second working end along the axis , wherein the first working end is configured to transmit a force to a surgical device in a direction about the axis and the second working end includes an open-ended wrench configured to transmit a force to a surgical device in a direction generally transverse to the axis, characterized in that the first working end includes a hex drive socket configured to transmit a force to a delivery unit in a direction about the axis for tightening the delivery unit to a fenestrated screw assembly and in that the open-ended wrench is configured to transmit a force to the delivery unit in a direction generally transverse to the axis.
Fuel cell system for generating electrical energy, having a fuel cell stack with an anode section and a cathode section , the anode section having an anode supply section for supplying anode supply gas (AZG) and an anode discharge section for discharging anode exhaust gas (AAG), wherein the anode discharge section merges into an anode recirculation section for recirculating the anode exhaust gas (AAG) as anode recirculation gas (ARG) to the anode supply section , the cathode section comprising a cathode supply section for supplying cathode supply gas (KZG) and a cathode discharge section for discharging cathode exhaust gas (KAG), wherein an active cooling device for cooling the anode recirculation gas (ARG) is arranged in the anode recirculation section , wherein a water outlet for an outlet of the condensed water (KW) condensed in the active cooling device is arranged downstream of the active cooling device , wherein a mixing section is arranged downstream of the water outlet for mixing the anode recirculation gas (ARG) with fuel gas (BRG) and for supplying it as anode feed gas (AZG) into the anode feed section , characterized in that the active cooling device comprises a thermally activated cooling device, in particular comprising an absorption heat pump, the active cooling device being arranged in heat-transferring contact with the cathode discharge section for thermal activation by means of the heat contained in the cathode exhaust gas (KAG).
A compound of formula (Ib), or a pharmaceutically acceptable salt thereof: wherein R 1 is -H or -C(O)CH(R 1a )NHR 1b ; and R 1a is selected from -H, -(C 1 -C 6 ) alkyl and CH 2 OR 1c ; R 1b is -H; or alternatively, R 1a and R 1b , together with the atom to which they are attached, form a 5-membered heterocyclic ring; and R 1c is H or -CH 3 . R 1 is -H or -C(O)CH(R 1a )NHR 1b ; and R 1a is selected from -H, -(C 1 -C 6 ) alkyl and CH 2 OR 1c ; R 1b is -H; or alternatively, R 1a and R 1b , together with the atom to which they are attached, form a 5-membered heterocyclic ring; and R 1c is H or -CH 3 .
A circuit assembly for protecting a unit to be operated from a supply network against overvoltage, comprising an input having a first and a second input connection, which are connected to the supply network , and an output having a first and a second output connection, to which the unit to be protected can be connected, and a protection circuit which is provided between the first and the second input connections in order to limit the voltage applied to it, and the protection circuit has a series connection of a bidirectional diode (D2) or a thyristor diode and a Zener element (D1), characterized in that the protection circuit has a power semiconductor (HS), wherein the series connection of the bidirectional diode or the thyristor diode and the Zener element is connected between the collector and the gate of the power semiconductor, wherein the voltage of the series connection results in a clamping voltage for the power semiconductor (HS), which lies above the voltage of the supply network and defines the protection level, the power semiconductor (HS) is an IGBT, to which a thyristor (TH) is connected in parallel, wherein the anode of the thyristor (TH) is connected to the collector and the cathode of the thyristor (TH) is connected to the emitter of the IGBT (HS), wherein the gate of the thyristor (TH) is in connection with the gate of the IGBT (HS).
A method of determining a fault location (F) in a power transmission medium comprising the steps of: (a) measuring one or more electrical characteristics of a power transmission medium at a local end (S) of the power transmission medium ; (b) determining a zero sequence source impedance (z RO ) at a remote end (R) of the power transmission medium based on the or each measured electrical characteristic of the power transmission medium ; and (c) calculating a position along the power transmission medium of a fault based on the determined zero sequence source impedance (z RO ) at the remote end (R) of the power transmission medium so as to determine the fault location (F) in the power transmission medium , the method being characterised in that step (b) of determining a zero sequence source impedance at a remote end (R) of the power transmission medium includes calculating a zero sequence source impedance (z RO ) at the local end (S) of the power transmission medium using the or each measured electrical characteristic of the power transmission medium . (a) measuring one or more electrical characteristics of a power transmission medium at a local end (S) of the power transmission medium ; (b) determining a zero sequence source impedance (z RO ) at a remote end (R) of the power transmission medium based on the or each measured electrical characteristic of the power transmission medium ; and (c) calculating a position along the power transmission medium of a fault based on the determined zero sequence source impedance (z RO ) at the remote end (R) of the power transmission medium so as to determine the fault location (F) in the power transmission medium , the method being characterised in that step (b) of determining a zero sequence source impedance at a remote end (R) of the power transmission medium includes calculating a zero sequence source impedance (z RO ) at the local end (S) of the power transmission medium using the or each measured electrical characteristic of the power transmission medium .
A supply device for supplying electrical energy, comprising a support structure as well as a receiving device in or on the support structure for receiving electrical energy by means of inductive coupling and a connection device in or on the supporting structure for realizing an electrical connection at the receiving device , characterized in that the supply device comprises a detection unit for detecting a defined magnetic field and/or for reaching a defined position in relation to the detected magnetic field and/or for activating a supply operation upon detection of the magnetic field or the position, wherein the detection unit is set up to depict a defined magnetic field and/or a defined position in relation to the detected magnetic field in a visually perceptible manner. characterized in that the supply device comprises a detection unit for detecting a defined magnetic field and/or for reaching a defined position in relation to the detected magnetic field and/or for activating a supply operation upon detection of the magnetic field or the position, wherein the detection unit is set up to depict a defined magnetic field and/or a defined position in relation to the detected magnetic field in a visually perceptible manner.
A rotor for a cylinder lock , comprising: - a main body extending along a longitudinal direction (P); - a seat extending along at least one part of said longitudinal direction (P) and adapted to house a key insertable along an insertion direction substantially parallel to said longitudinal direction (P); - a locking element movable between a locked configuration, in which it is only partially inserted inside the main body to interfere, in use, with a stator adapted to receive the rotor , and a disengaged configuration, in which it is totally inserted inside the main body ; - a plurality of rotating elements arranged inside the main body and in sequence with each other along said longitudinal direction (P), each of said rotating elements being able to rotate about its own axis of rotation substantially perpendicular to said longitudinal direction (P) during the insertion of the key inside the seat , each of said rotating elements having a groove to receive at least a corresponding portion of said locking element to allow the latter to assume the disengaged configuration; each rotating element and locking element being housed in a cavity communicating with said seat ; said cavity comprising a housing for containing the locking element and a first series of compartments for containing each rotating element ; said locking element being movable between said locked condition and said disengaged condition along a work direction substantially parallel to the axis of rotation of each rotating element , wherein said housing and said first series of compartments are made without any break in continuity and are aligned with the rotation axis of the rotating elements of the rotor . - a main body extending along a longitudinal direction (P); - a seat extending along at least one part of said longitudinal direction (P) and adapted to house a key insertable along an insertion direction substantially parallel to said longitudinal direction (P); - a locking element movable between a locked configuration, in which it is only partially inserted inside the main body to interfere, in use, with a stator adapted to receive the rotor , and a disengaged configuration, in which it is totally inserted inside the main body ; - a plurality of rotating elements arranged inside the main body and in sequence with each other along said longitudinal direction (P), each of said rotating elements being able to rotate about its own axis of rotation substantially perpendicular to said longitudinal direction (P) during the insertion of the key inside the seat , each of said rotating elements having a groove to receive at least a corresponding portion of said locking element to allow the latter to assume the disengaged configuration;
Transport container for helium (He) having an inner container for receiving the helium (He), a heat shield which is actively coolable with the aid of a cryogenic liquid (N 2 ) and in which the inner container is received, an outer container in which the heat shield and the inner container are received, and a support ring provided on the heat shield , wherein the inner container is suspended on the support ring with the aid of first suspensions rods (30 - 33), wherein the support ring is suspended on the outer container with the aid of second suspension rods (34 - 37), wherein at least one of the first suspension rods (30 - 33) has a first spring device and at least one of the second suspension rods (34 - 37) has a second spring device , in order to ensure a spring preloading of the first suspension rods (30 - 33) and the second suspension rods (34 - 37) at different thermal expansions of the inner container and the heat shield .
A manufacturing method for a pressed component including an elongated top plate , ridge lines at both short direction ends of the top plate , and vertical walls facing each other in a state extending from the respective ridge lines and at least one of the vertical walls being configured as a curved wall curving along the length direction of the top plate as viewed from an upper side of the top plate , the manufacturing method comprising a first process of pressing a blank (BL) to form an intermediate formed component including the top plate , the ridge lines at both short direction ends of the top plate , and the vertical walls , and in which a step projecting outward toward a side opposite from a side of the vertical wall facing the other vertical wall is formed at the curved wall so as to run along a length direction of the top plate , wherein the step is formed such that a projection width of the step , at a portion of the curved wall at a distance of not less than 40% of a height from the top plate position to a lower end of the curved wall, is not more than 20% of a short direction width (W) of the top plate ; the manufacturing method characterized in comprising: a second process of performing at least one out of pressing the intermediate formed component so as to narrow the projection width of the step , and pressing the intermediate formed component so as to move a lower portion of the curved wall beyond the step outward toward a side opposite from a side of the vertical wall facing the other vertical wall . a first process of pressing a blank (BL) to form an intermediate formed component including the top plate , the ridge lines at both short direction ends of the top plate , and the vertical walls , and in which a step projecting outward toward a side opposite from a side of the vertical wall facing the other vertical wall is formed at the curved wall so as to run along a length direction of the top plate , wherein the step is formed such that a projection width of the step , at a portion of the curved wall at a distance of not less than 40% of a height from the top plate position to a lower end of the curved wall, is not more than 20% of a short direction width (W) of the top plate ; the manufacturing method characterized in comprising: a second process of performing at least one out of pressing the intermediate formed component so as to narrow the projection width of the step , and pressing the intermediate formed component so as to move a lower portion of the curved wall beyond the step outward toward a side opposite from a side of the vertical wall facing the other vertical wall . a second process of performing at least one out of pressing the intermediate formed component so as to narrow the projection width of the step , and pressing the intermediate formed component so as to move a lower
Method for pressure loss regulation in a fluid-conducting pipe system having at least one movably mounted component which is coupled to at least one electromechanical transducer , wherein the movably mounted component itself creates a pressure difference ΔP in the pipe system , wherein the electromechanical transducer is moved to an operating mode depending on the pressure difference ΔP, created by the component , in the pipe system by means of an electrical controller, characterized in that the operating mode is generator operation if the pressure loss does not exceed a limit value or is no-load operation if the pressure loss exceeds a limit value or is motor operation if the pressure loss exceeds a limit value in spite of no-load operation.