mhurhangee/ep-ind-claims huggingface dataset:
A compound comprising: a metal hydroxide; and peptides, wherein the peptides are one or more selected from the group consisting of palmitoyl-GHK and palmitoyl-KTTKS, wherein the compound contains 60% by volume or more amorphous form, and wherein the compound is represented by Chemical Formula 1, [Chemical Formula 1] {M 2+ y z}A (2-x') ·nH 2 O (Wherein Chemical Formula 1, M 2+ is Zn 2+, A is the peptides, x' is a number of 1 or more and less than 2, y is a number of 0 or more and 2 or less, z is 0, y and z do not have a value of 0 at the same time, and n is a number of 0 or more and 10 or less). a metal hydroxide; and peptides, wherein the peptides are one or more selected from the group consisting of palmitoyl-GHK and palmitoyl-KTTKS, wherein the compound contains 60% by volume or more amorphous form, and wherein the compound is represented by Chemical Formula 1, [Chemical Formula 1] {M 2+ y z}A (2-x') ·nH 2 O (Wherein Chemical Formula 1, M 2+ is Zn 2+, A is the peptides, x' is a number of 1 or more and less than 2, y is a number of 0 or more and 2 or less, z is 0, y and z do not have a value of 0 at the same time, and n is a number of 0 or more and 10 or less). M 2+ is Zn 2+, A is the peptides, x' is a number of 1 or more and less than 2, y is a number of 0 or more and 2 or less, z is 0, y and z do not have a value of 0 at the same time, and n is a number of 0 or more and 10 or less).
A one-package type tooth surface coating material that can be stored as one package, for use in a method of dental therapy comprising forming an outer surface coating directly on the surface of a tooth to suppress hypersensitivity, the material comprising: a polymerizable monomer component containing not less than 5% by mass of an acidic group-containing polymerizable monomer; polyvalent metal ions that are ions of calcium, strontium, barium, aluminum, scandium, ytterbium, titanium, zinc, magnesium, zirconium, vanadium, chromium, manganese, iron, cobalt, nickel, copper or lanthanoide; a volatile water-soluble organic solvent that is methanol, ethanol, n-propanol, isopropyl alcohol, acetone and methyl ethyl ketone or a mixture thereof; water; and an effective amount of a photopolymerization initiator; said polyvalent metal ions being present in an amount of 1.0 to 7.0 meq per gram of said polymerizable monomer component; said water-soluble organic solvent being blended in an amount in a range of 30 to 150 parts by mass per 100 parts by mass of said polymerizable monomer component and satisfying a condition represented by the following formula, α ≧ 20 ⋅ X wherein α is a blended amount of said water-soluble organic solvent per 100 parts by mass of said polymerizable monomer component, and X is the amount of said polyvalent metal ions and is a number representing the amount (meq) thereof per gram of said polymerizable monomer component, and said water being blended in an amount of 3 to 30 parts by mass per 100 parts by mass of said polymerizable monomer component. a polymerizable monomer component containing not less than 5% by mass of an acidic group-containing polymerizable monomer; polyvalent metal ions that are ions of calcium, strontium, barium, aluminum, scandium, ytterbium, titanium, zinc, magnesium, zirconium, vanadium, chromium, manganese, iron, cobalt, nickel, copper or lanthanoide; a volatile water-soluble organic solvent that is methanol, ethanol, n-propanol, isopropyl alcohol, acetone and methyl ethyl ketone or a mixture thereof; water; and an effective amount of a photopolymerization initiator; said polyvalent metal ions being present in an amount of 1.0 to 7.0 meq per gram of said polymerizable monomer component; said water-soluble organic solvent being blended in an amount in a range of 30 to 150 parts by mass per 100 parts by mass of said polymerizable monomer component and satisfying a condition represented by the following formula, α ≧ 20 ⋅ X wherein α is a blended amount of said water-soluble organic solvent per 100 parts by mass of said polymerizable monomer component, and X is the amount of said polyvalent metal ions and is a number representing the amount (meq) thereof per gram of said polymerizable monomer component, and said water being blended in an amount of 3 to 30 parts by mass per 100 parts by mass of said polymerizable monomer component. X is the amount of said polyvalent metal ions and is a number representing the amount (meq) thereof per gram of said polymerizable monomer component, and said water being blended in an amount of 3 to 30 parts by mass per 100 parts by mass of said polymerizable monomer component.
A circuit for energy metering and surge current detection, comprising: a current transformer having a primary winding and a secondary winding (L2, L3); a first current sensing arrangement connected to the secondary winding, for energy metering; and a second current sensing arrangement connected to the secondary winding, for surge current detection, wherein the second current sensing arrangement comprises a high pass filter (R2, C2), characterized in that the secondary winding comprises first and second winding portions (L2, L3) in series, wherein a virtual earth is defined at the junction between the first and second winding portions, and the ends of the first and second winding portions (L2, L3) opposite the junction each connect to a transformer output (Vout) through a respective forward diode (D1, D2), and wherein the first and second current sensing arrangement are each connected to the transformer output (Vout) and to the virtual earth. a current transformer having a primary winding and a secondary winding (L2, L3); a first current sensing arrangement connected to the secondary winding, for energy metering; and a second current sensing arrangement connected to the secondary winding, for surge current detection, wherein the second current sensing arrangement comprises a high pass filter (R2, C2), characterized in that the secondary winding comprises first and second winding portions (L2, L3) in series, wherein a virtual earth is defined at the junction between the first and second winding portions, and the ends of the first and second winding portions (L2, L3) opposite the junction each connect to a transformer output (Vout) through a respective forward diode (D1, D2), and wherein the first and second current sensing arrangement are each connected to the transformer output (Vout) and to the virtual earth.
A spring element for fastening an airbag module to a vehicle steering wheel, comprising a first spring section which extends from a tool access point via a first bearing point as far as a first spring end, and a second spring section which extends from a tool access point via a second bearing point as far as a second spring end, characterized in that the two spring sections (16, 22) intersect between the tool access point and their spring ends (20, 26), especially between their bearing points (18, 24) and their spring ends (20, 26). a first spring section which extends from a tool access point via a first bearing point as far as a first spring end, and a second spring section which extends from a tool access point via a second bearing point as far as a second spring end, characterized in that the two spring sections (16, 22) intersect between the tool access point and their spring ends (20, 26), especially between their bearing points (18, 24) and their spring ends (20, 26).
An insulated glazing system comprising: - a first glass pane, - a second glass pane, - a spacer element comprising a first surface designed for coupling with said first glass pane and a second surface designed for coupling with said second glass pane, said spacer element being made of a low heat-conductive material, - support means within the insulated glazing system, for a blind, a screen or the like, - a first profile and engagement means, - said first profile comprising a first surface designed for coupling with said support means and a second surface designed for coupling with a bottom surface of said spacer element, - each of said first profile and said spacer element has at least one through hole (21,23), - said engagement means engaging said through holes (21, 22, 23) to thereby provide a tight mechanical coupling between said spacer element and said first profile. characterized in that it comprises a second profile comprising a first surface designed for coupling with a top surface of said spacer element and at least one through hole, said engagement means engaging said through holes (21, 22, 23) of said first profile, said second profile and said spacer element to thereby provide a mechanical coupling between said spacer element, said first profile and said second profile. - a first glass pane, - a second glass pane, - a spacer element comprising a first surface designed for coupling with said first glass pane and a second surface designed for coupling with said second glass pane, said spacer element being made of a low heat-conductive material, - support means within the insulated glazing system, for a blind, a screen or the like, - a first profile and engagement means, - said first profile comprising a first surface designed for coupling with said support means and a second surface designed for coupling with a bottom surface of said spacer element, - each of said first profile and said spacer element has at least one through hole (21,23), - said engagement means engaging said through holes (21, 22, 23) to thereby provide a tight mechanical coupling between said spacer element and said first profile.
A shaving assembly comprising: a razor blade; a base member in which the razor blade resides, the base member unitarily molded to include an integral blade guard that resides ahead of a cutting edge of the razor blade in a cutting direction, the base member defining a wash through channel that opens in an acute angle in the range of 30-70 degrees; a blade cover unitarily molded to retain the razor blade in a sandwich with the base member, wherein the sandwich is held together by a plurality of deformable pins penetrating from the blade cover through the razor blade and base member and wherein the blade cover has a skin contact surface, and wherein the skin contact surfaces residing in a shaving path has a texture in the range of 21-33 on the Verein Deutscher Ingenieure 3400 scale. a razor blade; a base member in which the razor blade resides, the base member unitarily molded to include an integral blade guard that resides ahead of a cutting edge of the razor blade in a cutting direction, the base member defining a wash through channel that opens in an acute angle in the range of 30-70 degrees; a blade cover unitarily molded to retain the razor blade in a sandwich with the base member, wherein the sandwich is held together by a plurality of deformable pins penetrating from the blade cover through the razor blade and base member and wherein the blade cover has a skin contact surface, and wherein the skin contact surfaces residing in a shaving path has a texture in the range of 21-33 on the Verein Deutscher Ingenieure 3400 scale.
Method for the operation of a production plant to produce an extrudate, in which at least one layer of the extrudate is extruded from plastic material in at least one extruder which is variable in the rotational speed of its screw, wherein the line speed V L of the extrudate is variable and in which further the diameter D and/or the wall thickness W v of the layer is measured by a measuring head in a distance from the extruder, characterised through the following steps: - an algorithm is memorised in a computer for an extruder model for calculating diameter values D and/or wall thickness values W v of the layer, taking into account the non-linear rotational speed dependent output capacity of the extruder, the inside diameter D core of the layer and the line speed V L, - the memorised extruder model is compiled from the volume output by measuring the wall thickness W v and/or the diameter of an extrudate, the extruder's rotational speed n ex, the line speed V L and the inside diameter D core, - when starting production of the extrudate, the value for diameter and/or wall thickness W v predictably generated by the extruder is calculated in the extruder model dependent on the values of the inside diameter D core, the line speed V L, the rotational speed n ex of the screw of the extruder, and the data for the output capacity of the extruder C that depend on the rotational speed, - the calculated, predictable value for diameter and/or wall thickness W v, prog is displayed, and - by changing the rotational speed n ex of the screw of the extruder and/or the line speed V L via manual actuation or regulation, the calculated and displayed value for diameter and/or wall thickness W v, prog is brought to a desired value for diameter and/or wall thickness W v, soll. - an algorithm is memorised in a computer for an extruder model for calculating diameter values D and/or wall thickness values W v of the layer, taking into account the non-linear rotational speed dependent output capacity of the extruder, the inside diameter D core of the layer and the line speed V L, - the memorised extruder model is compiled from the volume output by measuring the wall thickness W v and/or the diameter of an extrudate, the extruder's rotational speed n ex, the line speed V L and the inside diameter D core, - when starting production of the extrudate, the value for diameter and/or wall thickness W v predictably generated by the extruder is calculated in the extruder model dependent on the values of the inside diameter D core, the line speed V L, the rotational speed n ex of the screw of the extruder, and the data for the output capacity of the extruder C that depend on the rotational speed, - the calculated, predictable value for diameter and/or wall thickness W v, prog is displayed, and - by changing the rotational speed n ex of the screw of the extruder and/or the line speed V L via manual actuation or regulation, the calculated and displayed value for diameter and/or wall thickness W v, prog is brought to a desired value for diameter and/or wall thickness W v, soll.
An incubator-resuscitation system transformer for new-born children containing an infant module installed on a transport trolley and having lateral panels in which there are realized windows with doors, and a hood, an IR-emitter, a stand with illumination device and with a control unit with a monitor, an equipment connection module, control pedals, and boxes for accessories storage, characterized in that the hood is realized with the lateral panels as a unified structure, that is divided in an axial plane into two parts (12, 13) each of which is installed in articulated manner in the body of the infant module, wherein the windows are realized symmetrically on lateral surfaces of the hood and, at least, one of them is made on a door (18, 19) which is hinged in a window of larger size for an access to the patient, wherein, moreover, from the side opposite to the stand, at the body of the infant module, there are installed a handrail and an additional control unit with a monitor and, at the stand, there are installed the IR-emitter, a phototherapy device and, at least, one box for accessories storage.
A method for retrieving a location of a base point of a wheeled vehicle in a local coordinate system of a tridimensional sensor mounted on said vehicle, the method comprising: - acquiring a succession of first point cloud frames of an environment of the vehicle by operating said sensor while the wheeled vehicle is moving along a straight path, - acquiring a succession of second point cloud frames of the environment of the vehicle by operating said sensor while the wheeled vehicle is moving along a curved path, - providing at least one third point cloud acquired by said sensor and representative of a portion of the vehicle, wherein said first point cloud frames, said second point cloud frames and said at least one third point cloud are provided in a local coordinate system of the tridimensional sensor, - computing a main direction vector of the wheeled vehicle in the local coordinate system of the sensor from the succession of first point cloud frames, - defining a main direction line of the wheeled vehicle in the local coordinate system of the sensor from the main direction vector and the third point cloud, - determining at least one location of an instantaneous centre of rotation of the wheeled vehicle moving along the curved path, in the local coordinate system of the sensor, from the succession of second point cloud frames, - retrieving location of a base point of a wheeled vehicle in the local coordinate system using the main direction line and the location of the instantaneous centre of rotation. - acquiring a succession of first point cloud frames of an environment of the vehicle by operating said sensor while the wheeled vehicle is moving along a straight path, - acquiring a succession of second point cloud frames of the environment of the vehicle by operating said sensor while the wheeled vehicle is moving along a curved path, - providing at least one third point cloud acquired by said sensor and representative of a portion of the vehicle, wherein said first point cloud frames, said second point cloud frames and said at least one third point cloud are provided in a local coordinate system of the tridimensional sensor, - computing a main direction vector of the wheeled vehicle in the local coordinate system of the sensor from the succession of first point cloud frames, - defining a main direction line of the wheeled vehicle in the local coordinate system of the sensor from the main direction vector and the third point cloud, - determining at least one location of an instantaneous centre of rotation of the wheeled vehicle moving along the curved path, in the local coordinate system of the sensor, from the succession of second point cloud frames, - retrieving location of a base point of a wheeled vehicle in the local coordinate system using the main direction line and the location of the instantaneous centre of rotation.
A control device of a wiper system (1, 40, 80, 95, 100, 141, 170) provided with at least one wiper motor (7, 47a, 47b, 82, 91, 117, 147) and at least one other motor (18, 57, 153) different from the wiper motor (7, 47a, 47b, 82, 91, 117, 147), the control device being characterized by comprising a FET module (10, 54a, 54b, 110, 160) incorporating, in one package, at least two FETs (34b-34e, 64b-64e, 65b-65e, 135b-135e, 168b-168e) for drive of the wiper motor (7, 47a, 47b, 82, 91, 117, 147), at least two FETs (34f-34g, 64f-64g, 65f-65g, 135f-135g, 168f-168g) for drive of the other motor (18, 57, 153), and at least one FET (34a, 64a, 65a, 135a, 168a) for circuit protection at the time of power supply reverse connection.
Method for the conveyance of fluids by means of centrifugal pumps, machines (1, 6) and/or appliances (3, 8) which influence the pressure and/or temperature of the fluid being arranged upstream of a centrifugal pump, characterized in that the inlet temperature and/or the inlet pressure (p) of the fluid are/is measured and transferred to a control and/or regulating unit (13, 14), wherein the control and/or regulating unit (13, 14) transfers to the machines (1, 6) and/or appliances (3, 8) signals, via which the state of entry of the fluid can be set, wherein the state of entry of the fluid into the centrifugal pump is set by means of the machines (1, 6) and/or appliances (3, 8) such that the fluid in the centrifugal pump assumes only states in which the real gas factor (z) of the fluid has already reached or overshot its minimum.
Hairdressing appliance comprising - a portable treatment unit provided with gripping means (5b, 6b) and a heat and steam treatment system (8, 9, 11) configured for heating and applying steam to hair, - a base remote from the portable treatment unit, and - connection means between the base and the portable treatment unit configured for supplying the portable treatment unit at least with electricity from the base, characterised in that the hairdressing appliance comprises a control circuit board for the heat and steam treatment system, arranged in the base and a communication system (22, 31 - 34) between the control circuit board and the treatment system. - a portable treatment unit provided with gripping means (5b, 6b) and a heat and steam treatment system (8, 9, 11) configured for heating and applying steam to hair, - a base remote from the portable treatment unit, and - connection means between the base and the portable treatment unit configured for supplying the portable treatment unit at least with electricity from the base,
Method for the computer-aided generation of a security data record for detecting manipulation, having the following method steps of: - capturing measured values relating to a device by means of security sensors (620, 720) of the device, wherein - the measured values are not evaluated; - cryptographically protecting the measured values by means of a symmetrical and/or asymmetrical method; - generating the security data record by means of the device, wherein the security data record comprises the measured values; - providing the security data record at a communication interface by means of the device, wherein - the security data record is transmitted to an evaluation device upon provision, - manipulation of the device can be detected by the evaluation device on the basis of the security data record, - the measured values are transmitted to the evaluation device cyclically or within a predefined interval of time, - these measured values are also transmitted if the security sensors do not capture any change in measured values. - capturing measured values relating to a device by means of security sensors (620, 720) of the device, wherein - the measured values are not evaluated; - the measured values are not evaluated; - cryptographically protecting the measured values by means of a symmetrical and/or asymmetrical method; - generating the security data record by means of the device, wherein the security data record comprises the measured values; - providing the security data record at a communication interface by means of the device, wherein - the security data record is transmitted to an evaluation device upon provision, - manipulation of the device can be detected by the evaluation device on the basis of the security data record, - the measured values are transmitted to the evaluation device cyclically or within a predefined interval of time, - these measured values are also transmitted if the security sensors do not capture any change in measured values. - the security data record is transmitted to an evaluation device upon provision, - manipulation of the device can be detected by the evaluation device on the basis of the security data record, - the measured values are transmitted to the evaluation device cyclically or within a predefined interval of time, - these measured values are also transmitted if the security sensors do not capture any change in measured values.