mhurhangee/ep-ind-claims huggingface dataset:
Plug adapter for connection to a solenoid valve, in particular one already mounted in a motor vehicle, which has a plug connector for receiving an electrical control signal from a control unit of the motor vehicle for operating the solenoid valve, the plug adapter comprising: - a solenoid valve connector for releasably coupling the plug adapter to the plug connector of the solenoid valve, wherein the solenoid valve connector and the plug connector are matched to one another in terms of plug shape and electrical signal transmission, - an electronic component, in particular a microcontroller, for processing an electrical output signal for operating the solenoid valve, - a fluid-tight receptacle chamber with a particularly rectangular outline and with a wall surrounding the outline and a transparent lid, wherein - the electronic component is received in the receptacle chamber, the receptacle chamber is closable or closed by means of the lid in a fluid-tight manner, and - when the plug adapter is plugged into the plug connector, an electrical connection is established between the electronic component and the solenoid valve via the solenoid valve connector. - a solenoid valve connector for releasably coupling the plug adapter to the plug connector of the solenoid valve, wherein the solenoid valve connector and the plug connector are matched to one another in terms of plug shape and electrical signal transmission, - an electronic component, in particular a microcontroller, for processing an electrical output signal for operating the solenoid valve, - a fluid-tight receptacle chamber with a particularly rectangular outline and with a wall surrounding the outline and a transparent lid, wherein - the electronic component is received in the receptacle chamber, the receptacle chamber is closable or closed by means of the lid in a fluid-tight manner, and - when the plug adapter is plugged into the plug connector, an electrical connection is established between the electronic component and the solenoid valve via the solenoid valve connector.
Method for producing coated parts comprising the following steps: - producing the part in an injection moulding machine for processing plastics and other plasticisable materials, such as powdered, metal or ceramic masses, - removing the part from the injection moulding machine, - detecting the injection moulding parameters during the production of the part and/or measured parameters of the part, - placing the part in at least one coating chamber of a facility for surface coating, - introducing the coating into the coating chamber and applying the coating in a concomitant manner to the part in a coating process, - removing the coated part from the coating chamber, characterised in that the parameters of the coating process are controlled depending on the injection moulding parameters during the production of the part and/or depending on measured parameters of the part, and in that, inversely, the parameters detected during and/or after the coating process control the injection moulding process for production of the part. - producing the part in an injection moulding machine for processing plastics and other plasticisable materials, such as powdered, metal or ceramic masses, - removing the part from the injection moulding machine, - detecting the injection moulding parameters during the production of the part and/or measured parameters of the part, - placing the part in at least one coating chamber of a facility for surface coating, - introducing the coating into the coating chamber and applying the coating in a concomitant manner to the part in a coating process, - removing the coated part from the coating chamber,
A load cell comprising a spring body formed rotationally symmetrically about a center axis and having an outer support ring, having an upwardly projecting inner force introduction element, and having an annular deformation section which is formed as an annular membrane and via which the support ring and the force introduction element are fixedly connected to one another; and a plurality of strain gauges arranged on a lower side of the membrane for detecting a stretching and/or compressive deformation of the spring body, with the strain gauges being electrically connected to form a Wheatstone bridge or as a part thereof, wherein at least one first strain gauge, in particular two first strain gauges, is/are disposed on a first circle having a first radius about the center axis of the spring body and at least one second strain gauge, in particular two second strain gauges, is/are disposed on a second circle having a second radius, which is greater than the first radius, about the center axis of the spring body, wherein the mean thickness of the annular membrane in the region of the first strain gauge or gauges is larger than the mean thickness in the region of the second strain gauge or gauges, characterized in that the two first strain gauges are arranged along a first line through the center axis of the spring body and the two second strain gauges are arranged along a second line through the center axis of the spring body, with the two lines being rotated with respect to one another by an angle from 5° to 20°. a spring body formed rotationally symmetrically about a center axis and having an outer support ring, having an upwardly projecting inner force introduction element, and having an annular deformation section which is formed as an annular membrane and via which the support ring and the force introduction element are fixedly connected to one another; and a plurality of strain gauges arranged on a lower side of the membrane for detecting a stretching and/or compressive deformation of the spring body, with the strain gauges being electrically connected to form a Wheatstone bridge or as a part thereof, wherein at least one first strain gauge, in particular two first strain gauges, is/are disposed on a first circle having a first radius about the center axis of the spring body and at least one second strain gauge, in particular two second strain gauges, is/are disposed on a second circle having a second radius, which is greater than the first radius, about the center axis of the spring body, wherein the mean thickness of the annular membrane in the region of the first strain gauge or gauges is larger than the mean thickness in the region of the second strain gauge or gauges, characterized in that the two first strain gauges are arranged along a first line through the center axis of the spring body and the two second strain gauges are arranged along a second line through the center axis of the spring body, with the two lines being rotated with respect to one another by an angle from 5° to 20°.
Method for producing dicalcium silicate from raw materials which contain calcium carbonate CaCO 3 and silicon dioxide SiO 2, wherein the raw materials are present with a molar ratio of calcium: silicon (C:S) of 1.5:1 to 2.5:1, characterised in that the raw materials are reacted in a gaseous atmosphere at a CO 2 partial pressure of 0.05 MPa to 0.2 MPa and at temperatures of 900°C to 1100 °C with the addition of an inorganic alkali or earth alkali salt having a proportion of 0.5% by weight to 20% by weight relative to the sum total of the raw materials, as an auxiliary mineralisation material, and in this situation the content of non-reacting raw material in the dicalcium silicate of less than 5% by weight and a total carbon content of less than 1.5% by weight is attained.
An aryl compound terminated with glycidyl and (meth)allyl groups, having the general formula: wherein R 2 is hydrogen or methyl, n is 3 or 4 and R 1 is selected from the following groups: wherein the wavy line designates a valence bond.
A method, comprising: receiving, at a routing computing device, a call session request, the call session request including an indicator; determining, based on the indicator, whether the call session request should be routed based on origination information of the call session request; responsive to determining that the call session request should be routed based on the origination information, sending a first request for information identifying a next destination for the call session request, wherein the information identifying the next destination is determined based on the origination information of the call session request responsive to sending the first request, receiving, at the routing computing device, information identifying a location having the information identifying the next destination for the call session request; sending, to the identified location, a second request; receiving, responsive to the second request, the information identifying the next destination for the call session request; and routing the call session request to the identified next destination. receiving, at a routing computing device, a call session request, the call session request including an indicator; determining, based on the indicator, whether the call session request should be routed based on origination information of the call session request; responsive to determining that the call session request should be routed based on the origination information, sending a first request for information identifying a next destination for the call session request, wherein the information identifying the next destination is determined based on the origination information of the call session request responsive to sending the first request, receiving, at the routing computing device, information identifying a location having the information identifying the next destination for the call session request; sending, to the identified location, a second request; receiving, responsive to the second request, the information identifying the next destination for the call session request; and routing the call session request to the identified next destination.
Method for influencing a pendular movement of a load, wherein the load is suspended on a load suspension point of the crane by way of a cable system of a crane, wherein the pendular movement occurs about the load suspension point, is based on a vertical plane containing the load suspension point and has a pendular frequency, - wherein during the pendular movement a control facility of the crane receives data which is characteristic of an angle of deflection (φ) of the pendular movement and/or a temporal derivation (φ') of the angle of deflection (φ) of the pendular movement, - wherein the control facility sets an effective cable length of the cable system during the pendular movement in accordance with a resulting length target value (L*), - characterised in that the control facility determines the resulting length target value (L*) on the basis of the total of a basic length target value (L1*) and an additional length target value (L2*) and - wherein the control facility determines the additional length target value (L2*) such that the additional length target value (L2*) changes with a modulation frequency which is equal to double the pendular frequency and that the additional length target value (L2*) is minimal in the reversal points of the pendular movement and maximal in the zero-crossing of the pendular movement. - wherein during the pendular movement a control facility of the crane receives data which is characteristic of an angle of deflection (φ) of the pendular movement and/or a temporal derivation (φ') of the angle of deflection (φ) of the pendular movement, - wherein the control facility sets an effective cable length of the cable system during the pendular movement in accordance with a resulting length target value (L*), - characterised in that - wherein the control facility determines the additional length target value (L2*) such that the additional length target value (L2*) changes with a modulation frequency which is equal to double the pendular frequency and that the additional length target value (L2*) is minimal in the reversal points of the pendular movement and maximal in the zero-crossing of the pendular movement.
Copper/zinc alloy consisting of: - 63.0 to 64.5 % by weight Cu, - 33.8 to 36.8% by weight Zn, - 0.17 to 0.20 % by weight Pb, - 0.2 to 0.7% by weight Al, - 0.04 to 0.14% by weight As, - 0.0 to 0.3 % by weight Fe, - 0.0 to 0.3% by weight Sn, - 0.0 to 0.1 % by weight Mn, and remaining constituents up to a maximum of 0.02 % in each case. - 63.0 to 64.5 % by weight Cu, - 33.8 to 36.8% by weight Zn, - 0.17 to 0.20 % by weight Pb, - 0.2 to 0.7% by weight Al, - 0.04 to 0.14% by weight As, - 0.0 to 0.3 % by weight Fe, - 0.0 to 0.3% by weight Sn, - 0.0 to 0.1 % by weight Mn, and remaining constituents up to a maximum of 0.02 % in each case.
Lighting module of a motor vehicle headlight, comprising: a light source defining a first main direction of emission that is substantially horizontal; and a lens comprising an input surface and an output surface, the input surface being formed by facets, each facet forming a partial lens with an associated part of the output surface, each of said partial lenses being configured so as to project an image of the light source, said images projected by said partial lenses being substantially identical, characterized in that each partial lens (34, 24) is configured so as to produce a spreading of a light beam emitted by the light source, in a second direction that is substantially vertical, the vertical spreading being preferably progressive, the light intensity being greater in the bottom part of the beams. a light source defining a first main direction of emission that is substantially horizontal; and a lens comprising an input surface and an output surface, the input surface being formed by facets, each facet forming a partial lens with an associated part of the output surface, each of said partial lenses being configured so as to project an image of the light source, said images projected by said partial lenses being substantially identical, characterized in that each partial lens (34, 24) is configured so as to produce a spreading of a light beam emitted by the light source, in a second direction that is substantially vertical, the vertical spreading being preferably progressive, the light intensity being greater in the bottom part of the beams.
Radiant heating device for a hob, comprising: - a sheet-like support with a support top side, - at least one heating element (11, 111, 211) on the support top side, which heating element runs in tracks in a laying pattern, - wherein the heating element has at least two heating conductor strips (13a, 13b, 113a, 113b, 213a, 213b) which each have lateral sides (15a, 15b, 215a, 215b) and a top edge (17a, 17b, 117a, 117b, 217a, 217b) and a bottom edge (19a, 19b, 119a, 119b, 219a, 219b), - wherein the at least two heating conductor strips (13a, 13b, 113a, 113b, 213a, 213b) are connected to one another in a fixed and non-detachable manner, characterized in that: - the at least two heating conductor strips (13a, 13b, 113a, 113b, 213a, 213b) are placed together or placed on one another by way of their mutually facing lateral sides (15a, 15b, 215a, 215b) and are partially in contact, but do not completely run against one another. - a sheet-like support with a support top side, - at least one heating element (11, 111, 211) on the support top side, which heating element runs in tracks in a laying pattern, - wherein the heating element has at least two heating conductor strips (13a, 13b, 113a, 113b, 213a, 213b) which each have lateral sides (15a, 15b, 215a, 215b) and a top edge (17a, 17b, 117a, 117b, 217a, 217b) and a bottom edge (19a, 19b, 119a, 119b, 219a, 219b), - wherein the at least two heating conductor strips (13a, 13b, 113a, 113b, 213a, 213b) are connected to one another in a fixed and non-detachable manner, - the at least two heating conductor strips (13a, 13b, 113a, 113b, 213a, 213b) are placed together or placed on one another by way of their mutually facing lateral sides (15a, 15b, 215a, 215b) and are partially in contact, but do not completely run against one another.
A laser-engraveable composition comprising one or more elastomeric rubbers in an amount of at least 30 weight % and up to and including 80 weight %, based on the total laser-engravable composition weight, wherein the laser-engraveable composition further comprises at least 10 parts and up to and including 100 parts of one or more CLCB EPDM elastomeric rubbers, based on parts per hundred of the total weight of elastomeric rubbers (phr) in the laser-engraveable composition, the laser-engraveable composition further comprising one or both of the following components a) and b): a) at least 2 phr and up to and including 30 phr of an infrared radiation absorber and at least 1 phr and up to and including 80 phr of an inorganic, non-infrared radiation absorber filler, wherein the weight ratio of the infrared radiation absorber to the inorganic, non-infrared radiation absorber filler is from 1:40 to 30:1, and b) at least 2 phr and up to and including 30 phr of a near-infrared radiation absorber, and at least 3 phr and up to and including 20 phr of a vulcanizing composition that comprises a mixture of at least first and second peroxides, wherein the first peroxide has a t 90 value of at least 1 minute and up to and including 6 minutes as measured at 160°C, and the second peroxide has a t 90 value of at least 8 minutes and up to and including 20 minutes as measured at 160°C, and wherein the weight ratio of the near-infrared radiation absorber to the vulcanizing composition is from 1:10 to 10:1. a) at least 2 phr and up to and including 30 phr of an infrared radiation absorber and at least 1 phr and up to and including 80 phr of an inorganic, non-infrared radiation absorber filler, wherein the weight ratio of the infrared radiation absorber to the inorganic, non-infrared radiation absorber filler is from 1:40 to 30:1, and b) at least 2 phr and up to and including 30 phr of a near-infrared radiation absorber, and at least 3 phr and up to and including 20 phr of a vulcanizing composition that comprises a mixture of at least first and second peroxides,
A biodegradable polymer blend comprising: not less than 70% by weight of polylactic acid; between 0.5% to 15% by weight of a first polyester having an average molecular weight of not more than 40,000 and a melt flow rate of greater than 7g/10 mins as determined by the method described on page 11 of the present description with 2.16kg at 80°C wherein the first polyester comprises polycaprolactone or a linear polyhydroxy alkanoate; and between 0.5% to 15% by weight of a second polyester having an average molecular weight greater than that of the first polyester and a melt flow rate less than the first polyester wherein the second polyester comprises: • polybutylene succinate; • polycaprolactone; • polybutylene succinate adipate (PBSA); • polybutylene adipate; or • polybutylene adipate terephthalate (PBAT). not less than 70% by weight of polylactic acid; between 0.5% to 15% by weight of a first polyester having an average molecular weight of not more than 40,000 and a melt flow rate of greater than 7g/10 mins as determined by the method described on page 11 of the present description with 2.16kg at 80°C wherein the first polyester comprises polycaprolactone or a linear polyhydroxy alkanoate; and between 0.5% to 15% by weight of a second polyester having an average molecular weight greater than that of the first polyester and a melt flow rate less than the first polyester wherein the second polyester comprises: • polybutylene succinate; • polycaprolactone; • polybutylene succinate adipate (PBSA); • polybutylene adipate; or • polybutylene adipate terephthalate (PBAT). • polybutylene succinate; • polycaprolactone; • polybutylene succinate adipate (PBSA); • polybutylene adipate; or • polybutylene adipate terephthalate (PBAT).
A polypeptide comprising a first fragment and a second fragment, wherein (i) the first fragment is a Clostridium difficile toxin A repeating domain fragment; (ii) the second fragment is a Clostridium difficile_ toxin B repeating domain fragment; (iii) the first fragment has a first proximal end; (iv) the second fragment has a second proximal end; and wherein the first fragment and the second fragment are adjacent to one another and wherein the polypeptide elicits antibodies that neutralize toxin A and toxin B and wherein the first proximal end is not within amino acids 1878-1940, 2012-2074, 2146-2208, 2258-2322, 2394-2456, 2507-2569 or 2598-2660 of toxin A and the second proximal end is within amino acids 1834-1926 or 1927-2057 of toxin B but not within amino acids 1881-1942 or 2012-2057 of toxin B. (i) the first fragment is a Clostridium difficile toxin A repeating domain fragment; (ii) the second fragment is a Clostridium difficile_ toxin B repeating domain fragment; (iii) the first fragment has a first proximal end; (iv) the second fragment has a second proximal end; and wherein the first fragment and the second fragment are adjacent to one another and wherein the polypeptide elicits antibodies that neutralize toxin A and toxin B and wherein the first proximal end is not within amino acids 1878-1940, 2012-2074, 2146-2208, 2258-2322, 2394-2456, 2507-2569 or 2598-2660 of toxin A and the second proximal end is within amino acids 1834-1926 or 1927-2057 of toxin B but not within amino acids 1881-1942 or 2012-2057 of toxin B. wherein the first fragment and the second fragment are adjacent to one another and wherein the polypeptide elicits antibodies that neutralize toxin A and toxin B and wherein the first proximal end is not within amino acids 1878-1940, 2012-2074, 2146-2208, 2258-2322, 2394-2456, 2507-2569 or 2598-2660 of toxin A and the second proximal end is within amino acids 1834-1926 or 1927-2057 of toxin B but not within amino acids 1881-1942 or 2012-2057 of toxin B.