mhurhangee/ep-ind-claims huggingface dataset:
An arrangement of two electrical harnesses, each harness being formed from a flexible printed circuit board which provides a plurality of conductive tracks, and each harness having a substantially planar terminating region at which the conductive tracks of the harness fan out, wherein one or more receiving holes are formed in each terminating region to extend to respective conductive tracks, each receiving hole extends in a direction substantially perpendicularly to the plane of the respective terminating region, wherein: the harnesses are joined at their terminating regions by a connector comprising: a connection formation which, in use, is sandwiched between respective terminating regions of the two electrical harnesses, the connection formation having one or more pins which are arranged so that one end of each pin enters a receiving hole of one of the terminating regions and the other end of the pin enters a receiving hole of the other of the terminating regions to electrically connect the respective conductive tracks; and a housing configured to hold the respective terminating regions of the two electrical harnesses in face-to-face relationship with the connection formation sandwiched therebetween, the housing having one or more apertures through which the harnesses can exit the housing as they extend away from their terminating regions. the harnesses are joined at their terminating regions by a connector comprising: a connection formation which, in use, is sandwiched between respective terminating regions of the two electrical harnesses, the connection formation having one or more pins which are arranged so that one end of each pin enters a receiving hole of one of the terminating regions and the other end of the pin enters a receiving hole of the other of the terminating regions to electrically connect the respective conductive tracks; and a housing configured to hold the respective terminating regions of the two electrical harnesses in face-to-face relationship with the connection formation sandwiched therebetween, the housing having one or more apertures through which the harnesses can exit the housing as they extend away from their terminating regions. a connection formation which, in use, is sandwiched between respective terminating regions of the two electrical harnesses, the connection formation having one or more pins which are arranged so that one end of each pin enters a receiving hole of one of the terminating regions and the other end of the pin enters a receiving hole of the other of the terminating regions to electrically connect the respective conductive tracks; and a housing configured to hold the respective terminating regions of the two electrical harnesses in face-to-face relationship with the connection formation sandwiched therebetween, the housing having one or more apertures through which the harnesses can exit the housing as they extend away from their terminating regions.
A medical system (300, 400, 500, 600, 700, 800, 900, 1000), the medical system (300, 400, 500, 600, 700, 800, 900, 1000) comprising: a first one of a plurality of implantable medical devices and a second one of the plurality of implantable medical devices, wherein the first one of the plurality of implantable medical devices is configured to determine to deliver an anti-tachycardia response and to communicate multiple messages from the first one of the plurality of implantable medical devices to the second one of the plurality of implantable medical devices, the multiple messages to the second one of the plurality of implantable medical devices to deliver the anti-tachycardia response via one or more electrodes of the second one of the plurality of implantable medical devices; wherein, in response to receiving each of the multiple message, the second one of the plurality of implantable medical devices is configured to deliver a single pacing pulse to the one or more electrodes of the second one of the plurality of implantable medical devices, wherein each of the multiple messages is a trigger for delivery of the corresponding single pacing pulse, wherein the first one of the plurality of implantable medical devices is configured to communicate multiple triggers to the second one of the plurality of implantable medical devices in accordance with an anti-tachycardia pacing protocol, wherein the second one of the plurality of implantable medical devices is configured to deliver a single pacing pulse in response to each one of the multiple triggers. a first one of a plurality of implantable medical devices and a second one of the plurality of implantable medical devices, wherein the first one of the plurality of implantable medical devices is configured to determine to deliver an anti-tachycardia response and to communicate multiple messages from the first one of the plurality of implantable medical devices to the second one of the plurality of implantable medical devices, the multiple messages to the second one of the plurality of implantable medical devices to deliver the anti-tachycardia response via one or more electrodes of the second one of the plurality of implantable medical devices; wherein, in response to receiving each of the multiple message, the second one of the plurality of implantable medical devices is configured to deliver a single pacing pulse to the one or more electrodes of the second one of the plurality of implantable medical devices, wherein each of the multiple messages is a trigger for delivery of the corresponding single pacing pulse, wherein the first one of the plurality of implantable medical devices is configured to communicate multiple triggers to the second one of the plurality of implantable medical devices in accordance with an anti-tachycardia pacing protocol, wherein the second one of the plurality of implantable medical devices is configured to deliver a single pacing pulse in response to each one of the multiple triggers.
Device for discharging single or multi-component adhesive onto a ballast bed of a rail track of a rail line, including a supply vehicle (34, 48) which can be moved alongside the rail line and on which the container or containers for the adhesive and the elements for conveying for the purpose of discharging the adhesive are installed, and also a single rail carriage which can be temporarily coupled to a single rail and secured thereto, or a rail carriage which can be manually placed on the rails or assembled thereon, and both of which can be quickly lifted away from the rail and removed therefrom, for allowing a railway train to pass, and which can be supplied with adhesive from the supply vehicle (34, 48) via hose lines, at least one spray nozzle being mounted on the single rail carriage or on the rail carriage, so that a defined penetration depth of the adhesive into the ballast bed can be maintained by uniform travelling speed of the single rail wagon or the rail wagon or by uniform movement of the spray nozzle on this single rail wagon or on the rail wagon by defined flow rates of the adhesive conveyed by the supply vehicle, depending on the nature of the ballast bed and spray pattern.
A method of making a M41S family mesoporous molecular sieve having, after calcination, a hexagonal arrangement of uniformly-sized pores having diameters of at least 13 Angstrom Units and exhibiting a hexagonal X-ray diffraction pattern that can be indexed with a d 100 value greater than 18 Angstrom Units, which comprises: (a) preparing a reaction mixture capable of forming said M41S family mesoporous molecular sieve, said reaction mixture comprising sources of alkali or alkaline earth metal, of silicon oxide and of aluminum oxide, an organic directing agent and solvent or solvent mixture comprising at least one of C 1 -C 6 alcohol, C 1 -C 6 diol, and water, and having a composition, in terms of mole ratios, within the following ranges: Al 2 O 3 /SiO 2 0.001 to 0.05 Solvent/SiO 2 4 to 8 OH-/SiO 2 0.05 to 5 M 2/e O/(SiO 2 +Al 2 O 3) 0.005 to 3 R 2/f O/(SiO 2 +Al 2 O 3) 0.03 to 1.0 wherein e and f are the weighted average valences of M and R, respectively, and the organic directing agent comprises an organic agent selected from the group consisting of cetyltrimethylammonium, octadecyltrimethylammonium, myristyltrimethylammonium, decyltrimethylammonium, dodecyltrimethylammonium and dimethyldidodecylammonium; (b) maintaining said mixture under conditions of pH, temperature and time to form the M41 S family mesoporous molecular sieve; and (c) recovering said M41 S family mesoporous molecular sieve without filtration and washing steps, wherein the crystallization temperature is from 25°C to 175°C and the pH is maintained at from 9 to 14. (a) preparing a reaction mixture capable of forming said M41S family mesoporous molecular sieve, said reaction mixture comprising sources of alkali or alkaline earth metal, of silicon oxide and of aluminum oxide, an organic directing agent and solvent or solvent mixture comprising at least one of C 1 -C 6 alcohol, C 1 -C 6 diol, and water, and having a composition, in terms of mole ratios, within the following ranges: Al 2 O 3 /SiO 2 0.001 to 0.05 Solvent/SiO 2 4 to 8 OH-/SiO 2 0.05 to 5 M 2/e O/(SiO 2 +Al 2 O 3) 0.005 to 3 R 2/f O/(SiO 2 +Al 2 O 3) 0.03 to 1.0 wherein e and f are the weighted average valences of M and R, respectively, and the organic directing agent comprises an organic agent selected from the group consisting of cetyltrimethylammonium, octadecyltrimethylammonium, myristyltrimethylammonium, decyltrimethylammonium, dodecyltrimethylammonium and dimethyldidodecylammonium; e and f are the weighted average valences of M and R, respectively, and the organic directing agent comprises an organic agent selected from the group consisting of cetyltrimethylammonium, octadecyltrimethylammonium, myristyltrimethylammonium, decyltrimethylammonium, dodecyltrimethylammonium and dimethyldidodecylammonium; (b) maintaining said mixture under conditions of pH, temperature and time to form the M41 S family mesoporous molecular sieve; and (c) recovering said M41 S family mesoporous molecular sieve without filtration and washing steps, wherein the crystallization temperature is from 25°C to 175°C and the pH is maintained at from 9 to 14.
A method for preparing a dispersion of polar lipids in an ethanol-water mixture, said polar lipids comprising galactolipids, characterized in diluting an oil containing polar lipids comprising galadoliplds using a first ethanol-water mixture having an ethanol concentration, calculated as volume% based on the total amount of ethanol and water which is in the range from 15 volume% units below the critical polarity of the ethanol-water mixture with respect to said oil, to 15 volume% units above said critical polarity, wherein the critical polarity of said first ethanol-water mixture is in the range 25-75 volume% ethanol in the water-ethanol-mixture and wherein upon dilution said polar lipids form a lamellar liquid-crystalline phase, without first forming a hexagonal HII-phase, wherein the critical polarity defines the concentration of ethanol and water of the solvent system when a solvent-in-oil emulsion is transformed into an oil-in-solvent emulsion and the critical polarity is detected by viscosity or microscopy.
A system for reducing erroneous weighing of an item on a weigh platter of a scanner-scale, comprising: a light source disposed in or on a housing (412, 415) of the scanner-scale for producing a light beam (432, 438); a detector for receiving the light beam (432, 438), the detector disposed in or on the housing (412, 415), wherein the light beam (432, 438) is directed along an optical path extending from the light source to the detector; the detector is operative for detecting an interruption of the light beam (432, 438) due to an item encroaching upon or overhanging an edge of the weigh platter, the housing (412, 415) has a lower housing section and an upper housing section joined to form a generally L-shape, the weigh platter is disposed in the lower housing section, and the weigh platter is supported or suspended by at least one load cell; and a light guide extending along a side edge of the weigh platter, wherein the light guide provides at least a portion of the optical path for light beam (432, 438) between the light source and the detector, wherein the optical path of the light beam (432, 438) passes through the light guide, through the weigh platter and along a path proximate an upper side edge of the weigh platter; characterized in that the light guide extends below the weigh platter, is not attached to the weigh platter, and is supported on the lower housing section such that the light guide is not loading the load cell. a light source disposed in or on a housing (412, 415) of the scanner-scale for producing a light beam (432, 438); a detector for receiving the light beam (432, 438), the detector disposed in or on the housing (412, 415), wherein the light beam (432, 438) is directed along an optical path extending from the light source to the detector; the detector is operative for detecting an interruption of the light beam (432, 438) due to an item encroaching upon or overhanging an edge of the weigh platter, the housing (412, 415) has a lower housing section and an upper housing section joined to form a generally L-shape, the weigh platter is disposed in the lower housing section, and the weigh platter is supported or suspended by at least one load cell; and a light guide extending along a side edge of the weigh platter, wherein the light guide provides at least a portion of the optical path for light beam (432, 438) between the light source and the detector, wherein the optical path of the light beam (432, 438) passes through the light guide, through the weigh platter and along a path proximate an upper side edge of the weigh platter; characterized in that the light guide extends below the weigh platter, is not attached to the weigh platter, and is supported on the lower housing section such that the light guide is not loading the load cell.
Device for disconnecting a circuit having an inductive load, comprising (a) a first and a second switch/switch group (S1, S2), which are connected in series with one another and can be transferred from a closed state into a disconnected state in order to disconnect the circuit, none of the switches/switch groups (S1, S2) being designed such that it alone is able to permanently disconnect the circuit, and (b) a control unit which controls the second switch/switch group and which is designed such that the second switch/switch group is transferred from the closed state into the disconnected state subsequently to the first switch/switch group, characterized in that the first switch/switch group is a high-current high-voltage switch which, in its interior, has an extinguishing agent in the region of the disconnecting element, via the disconnection of which the circuit is disconnected, and in that the control unit is designed such that the second switch/switch group is transferred from the closed state into the disconnected state at the latest before an amount of energy introduced into the second switch/switch group is reached which leads to the destruction thereof. (a) a first and a second switch/switch group (S1, S2), which are connected in series with one another and can be transferred from a closed state into a disconnected state in order to disconnect the circuit, none of the switches/switch groups (S1, S2) being designed such that it alone is able to permanently disconnect the circuit, and (b) a control unit which controls the second switch/switch group and which is designed such that the second switch/switch group is transferred from the closed state into the disconnected state subsequently to the first switch/switch group, the first switch/switch group is a high-current high-voltage switch which, in its interior, has an extinguishing agent in the region of the disconnecting element, via the disconnection of which the circuit is disconnected, and in that the control unit is designed such that the second switch/switch group is transferred from the closed state into the disconnected state at the latest before an amount of energy introduced into the second switch/switch group is reached which leads to the destruction thereof.
A method for anchoring a joint element (1, 1a, 1b) in a metal sheet in a manner secured against rotation by inserting a joint and securing section (4, 4a, 4b) protruding from a head of the joint element (1, 1a, 1b) into a joint opening provided in the metal sheet, said opening having a cross section deviating from a circular shape, such that an edge of the joint opening forms at least one area with a maximum distance from a centre axis of the joint opening and at least one area with a minimum radial distance from the centre axis of the joint opening, wherein after having been anchored, the joint element with its head rests against the metal sheet, wherein the joint and securing section (4, 4a, 4b) forms a locking section in an area adjoining the head, wherein the locking section is formed by a ring-shaped section at the transition between the head and the joint and securing section (4, 4a) or by a partial length of the joint and securing section (4, 4a) adjoining the head, in which half of the diameter of the locking section is equal or approximately equal to the maximum radial distance but greater than the minimum radial distance, and in which the locking section is deformed into a cross-sectional shape deviating from the rotationally symmetric shape during the joining and fastening of the joint element (1, 1a, 1b).
Method for producing a soft-magnetic alloy, comprising the provision of a precursor having a composition consisting substantially of 5 % w/w ≤ Co ≤ 25 % w/w 0.3 % w/w ≤ V ≤ 5.0 % w/w 0 % w/w ≤ Cr ≤ 3.0 % w/w 0 % w/w ≤ Si ≤ 3.0 % w/w 0 % w/w ≤ Mn ≤ 3.0 % w/w 0 % w/w ≤ Al ≤ 3.0 % w/w 0 % w/w ≤ Ta ≤ 0.5 % w/w 0 % w/w ≤ Ni ≤ 0.5 % w/w 0 % w/w ≤ Mo ≤ 0.5 % w/w 0 % w/w ≤ Cu ≤ 0.2 % w/w 0 % w/w ≤ Nb ≤ 0.25 % w/w 0 % w/w ≤ Ti ≤ 0.05 % w/w 0 % w/w ≤ Ce ≤ 0.05 % w/w 0 % w/w ≤ Ca ≤ 0.05 % w/w 0 % w/w ≤ Mg ≤ 0.05 % w/w 0 % w/w ≤ C ≤ 0.02 % w/w 0 % w/w ≤ Zr ≤ 0.1 % w/w 0 % w/w ≤ O ≤ 0.025 % w/w 0 % w/w ≤ S ≤ 0.015 % w/w rest iron, wherein Cr+Si+Al+Mn ≤ 3.0 % w/w, and up to 0.2 % w/w of other impurities, wherein the precursor has a phase transition from a BCC phase area into a BCC/FCC mixed area to an FCC phase area, wherein at increasing temperature the phase transition between the BCC phase area and the BCC/FCC mixed area occurs at a first transition temperature T Ü1 and at further increasing temperature the transition between the BCC/FCC mixed area and the FCC phase area occurs at a second transition temperature T Ü2, as magnetic final annealing the heat treatment of the precursor at a temperature T 1 > T Ü2, wherein the precursor is heat-treated for a time of more than 30 minutes above T Ü2, followed by cooling at a cooling rate of 10°C/h to 900°C/h, preferably 25°C/h to 500°C/h, to a temperature T 2, wherein T 2 < T Ü1 and 700°C ≤ T 2 ≤ 1050°C, followed by cooling to room temperature. wherein at increasing temperature the phase transition between the BCC phase area and the BCC/FCC mixed area occurs at a first transition temperature T Ü1 and at further increasing temperature the transition between the BCC/FCC mixed area and the FCC phase area occurs at a second transition temperature T Ü2, as magnetic final annealing the heat treatment of the precursor at a temperature T 1 > T Ü2, wherein the precursor is heat-treated for a time of more than 30 minutes above T Ü2, followed by cooling at a cooling rate of 10°C/h to 900°C/h, preferably 25°C/h to 500°C/h, to a temperature T 2, wherein T 2 < T Ü1 and 700°C ≤ T 2 ≤ 1050°C, followed by cooling to room temperature.
A device for discharging an electrical overvoltage, with an overvoltage discharge unit having a non-linear current/voltage characteristic curve, at least in sections, wherein a first terminal electrode of the overvoltage discharge unit is connected to a high-voltage terminal of the device and a second terminal electrode of the overvoltage discharge unit is connected to a low-voltage or ground terminal of the device, and wherein the overvoltage discharge unit is surrounded, at least in sections, by an insulating body, characterised in that the device has a cutting element connected to the low-voltage or ground terminal of the device, which cutting element is arranged near a high-voltage-conducting section of the device, in particular near a high-voltage-conducting section of the overvoltage discharge unit, and which cutting element cuts into the insulating body in the event of the insulating body distending as a result of an electrical overload of the device, and thereby an arc can be sparked and stabilised between the high-voltage-conducting section and the cutting element.
A method of manufacturing articles of footwear, including steps of: manufacturing a first article of footwear having a first sole with a structural characteristic having a first value; selling the first article of footwear (104 to a customer, the customer having customer identification information; designating the first article of footwear as being owned by the customer having the customer identification information; providing an evaluation system for evaluating one or more structural characteristics of the first article of footwear as an application program to be run on a mobile computing device; receiving a customer-selected evaluation of the first value of the structural characteristic as data transmitted through the application program; designating the customer-selected evaluation as being received from the customer having the customer identification information; manufacturing a second article of footwear having a second sole with the structural characteristic having a second value that is different from the first value, wherein the second value of the structural characteristic is determined by the customer-selected evaluation of the first value of the structural characteristic in the first article of footwear; selling the second article of footwear to the customer; and designating the second article of footwear as being owned by the customer having customer identification information. manufacturing a first article of footwear having a first sole with a structural characteristic having a first value; selling the first article of footwear (104 to a customer, the customer having customer identification information; designating the first article of footwear as being owned by the customer having the customer identification information; providing an evaluation system for evaluating one or more structural characteristics of the first article of footwear as an application program to be run on a mobile computing device; receiving a customer-selected evaluation of the first value of the structural characteristic as data transmitted through the application program; designating the customer-selected evaluation as being received from the customer having the customer identification information; manufacturing a second article of footwear having a second sole with the structural characteristic having a second value that is different from the first value, wherein the second value of the structural characteristic is determined by the customer-selected evaluation of the first value of the structural characteristic in the first article of footwear; selling the second article of footwear to the customer; and designating the second article of footwear as being owned by the customer having customer identification information.