mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for automatically managing mobile devices, having a storage apparatus (10; 10') which is in the form of a storage cabinet and has at least two storage stations for storing one of the mobile devices and has at least one maintenance station for storing and maintaining one of the mobile devices, and a detection apparatus (16, 18) having a user interface for detecting a desire to issue one of the mobile devices from the storage apparatus (10; 10'), characterized in that the at least two storage stations and the at least one maintenance station are each provided in a lockable storage compartment which can be mechanically unlocked when issuing an issue device and/or when receiving a return device, wherein the detection apparatus (16, 18) comprises a barcode, QR code and/or RFID scanner for detecting a desire to return a mobile device as a return device, and wherein the management apparatus comprises a controller which is configured to determine a group of mobile devices on the basis of a ratio of at least one maintenance characteristic value of the respective mobile devices to an associated maintenance threshold value, to select one of the mobile devices from the group as an issue device, to issue the selected issue device by mechanically unlocking at least one of the storage compartments, and/or to receive the return device into the at least one maintenance station or into one of the at least two storage stations on the basis of a ratio of at least one maintenance characteristic value of the return device to an associated maintenance threshold value by means of approval during the unlocking of at least one of the storage compartments.
A method for culturing animal cells in a culture medium, wherein the culture medium comprises not less than 15 mg/L and not more than 100 mg/L of deoxyuridine or a salt thereof, not less than 15 mg/L and not more than 50 mg/L of thymidine or a salt thereof, and not less than 15 mg/L and not more than 50 mg/L of deoxycytidine or a salt thereof.
A polymorph of a compound of formula wherein the compound of formula is 3,3'-Dideoxy-3,3'-bis-[4-(3-fluorophenyl)-1H-1,2,3-triazol-1-yl]-1,1'-sulfanediyl-di-β-D-galactopyranoside and has the polymorphic form 1 as identified in the XRPD diffractogram peak list No. Pos. [°2Th.] Rel. Int. [%] 1 7.1269 77.72 2 7.5067 56 3 10.125 36.86 4 14.3791 32.28 5 15.0846 18.59 6 15.8201 35.78 7 16.7088 78.1 8 16.8001 21.29 9 19.7777 100 10 20.3353 57.04 11 21.7744 79.92 12 22.6053 35.8 13 23.4305 45.78 14 24.3658 51.03 15 25.8091 54.36 16 26.7046 25.38 17 29.028 16.19 18 30.2989 28.02 19 32.2693 14.86 20 33.5132 11.55 21 34.6078 11.54 22 35.8435 9.6 23 44.6257 22.73
Vehicle, in particular a rail vehicle, with - a first wagon body - a second wagon body and - a running gear, wherein - said running gear is arranged in the region of the mutually adjacent ends of the two wagon bodies (103, 104), - said first wagon body and said second wagon body, in the region of their mutually adjacent ends, are pivotally connected at least about a pivot axis (106.1) running in the direction of the height axis (101.2) of said vehicle (101; 201), - said first wagon body, via a first articulation device (105; 205), is pivotally connected to said running gear about a first pivot axis (105.1) running in the direction of said height axis (101.2) of said vehicle (101; 201) and is supported on said running gear, - said second wagon body being pivotally connected to said first wagon body via a second articulation device about a second pivot axis (106.1) running in the direction of said height axis (101.2) of said vehicle (101; 201), wherein - the connection of said wagon bodies (103, 104) is functionally separated from the connection of said running gear to said first wagon body, in that said second wagon body is supported on said first wagon body via said second articulation device and the structure of said first wagon body introduces the supporting forces resulting from the support of said second wagon body into said running gear via said first articulation device, characterized in that - said first articulation device is configured in the manner of a slewing ring. - a first wagon body - a second wagon body and - a running gear, wherein - said running gear is arranged in the region of the mutually adjacent ends of the two wagon bodies (103, 104), - said first wagon body and said second wagon body, in the region of their mutually adjacent ends, are pivotally connected at least about a pivot axis (106.1) running in the direction of the height axis (101.2) of said vehicle (101; 201), - said first wagon body, via a first articulation device (105; 205), is pivotally connected to said running gear about a first pivot axis (105.1) running in the direction of said height axis (101.2) of said vehicle (101; 201) and is supported on said running gear, - said second wagon body being pivotally connected to said first wagon body via a second articulation device about a second pivot axis (106.1) running in the direction of said height axis (101.2) of said vehicle (101; 201), wherein - the connection of said wagon bodies (103, 104) is functionally separated from the connection of said running gear to said first wagon body, in that said second wagon body is supported on said first wagon body via said second articulation device and the structure of said first wagon body introduces the supporting forces resulting from the support of said second wagon body into said running gear via said first articulation device, characterized in that - said first articulation device is configured in the manner of a slewing ring.
Use of a temperature sensor as a temperature sensor under an atmosphere of hydrogen, the temperature sensor comprising: a thermistor element body comprising an oxide sintered body; a pair of lead wires (13a, 13b) each electrically connected to the element body; and a glass sealing body sealing the element body and a part of the lead wires (13a, 13b) including a portion connected to the element body, wherein the pair of lead wires (13a, 13b) comprises any of Pt, an alloy of Pt and Pd, an alloy of Pt and Ir, an alloy of Pt, Pd and Ir and an alloy of Pd and Ir. a thermistor element body comprising an oxide sintered body; a pair of lead wires (13a, 13b) each electrically connected to the element body; and a glass sealing body sealing the element body and a part of the lead wires (13a, 13b) including a portion connected to the element body, wherein the pair of lead wires (13a, 13b) comprises any of Pt, an alloy of Pt and Pd, an alloy of Pt and Ir, an alloy of Pt, Pd and Ir and an alloy of Pd and Ir.
A method for the manufacture of a dielectric resonator antenna, DRA (100, 200, 300, 400, 500, 600, 700, 800, 900, 1000, 1100, 1300, 1400, 1500, 1600, 1700, 1800, 1900, 2000, 2900, 3000, 3100, 3200, 3300, 3400), or an array of the DRA's, wherein each of the DRA (100, 200, 300, 400, 500, 600, 700, 800, 900, 1000, 1100, 1300, 1400, 1500, 1600, 1700, 1800, 1900, 2000, 2900, 3000, 3100, 3200, 3300, 3400) comprises: a plurality of volumes (104, 204, 404, 504, 604, 704, 804, 904, 1004, 1204, 1304, 2904, 3004, 3104, 3204) of dielectric materials comprising N volumes, N being an integer equal to or greater than 3, disposed to form successive and sequential layered volumes V i, i being an integer from 1 to N, wherein volume V 1 forms an innermost first volume (104.1, 204.1, 404.1, 504.1, 604.1, 704.1, 804.1, 904.1, 1004.1, 1204.1, 1304.1, 2904.1, 3004.1, 3104.1, 3204.1), wherein a successive volume V i+1 forms a layered shell disposed over and at least partially embedding volume V i, wherein volume V N at least partially embeds all volumes V 1 to V N-1; an electrically conductive ground structure (102, 202, 308, 402, 502, 602, 702, 802, 902, 1002, 1302, 1602, 2301, 2370, 2404, 2454, 2902, 3002, 3102, 3202); and a signal feed (106, 206, 310, 506, 606, 706, 806, 906, 1006, 1306, 2906, 3206), the method comprising: molding at least one volume of the plurality of volumes (104, 204, 404, 504, 604, 704, 804, 904, 1004, 1204, 1304, 2904, 3004, 3104, 3204) of the dielectric materials, or all of the volumes (104, 204, 404, 504, 604, 704, 804, 904, 1004, 1204, 1304, 2904, 3004, 3104, 3204) of the plurality of volumes of the dielectric materials (104, 204, 404, 504, 604, 704, 804, 904, 1004, 1204, 1304, 2904, 3004, 3104, 3204); molding a first volume (104.1, 204.1, 404.1, 504.1, 604.1, 704.1, 804.1, 904.1, 1004.1, 1204.1, 1304.1, 2904.1, 3004.1, 3104.1, 3204.1) of the plurality of volumes (104, 204, 404, 504, 604, 704, 804, 904, 1004, 1204, 1304, 2904, 3004, 3104, 3204) of dielectric material; and subsequent to molding the first volume (104.1, 204.1, 404.1, 504.1, 604.1, 704.1, 804.1, 904.1, 1004.1, 1204.1, 1304.1, 2904.1, 3004.1, 3104.1, 3204.1), molding a second volume (104.2, 204.2, 404.2, 504.2, 604.2, 704.2, 804.2, 904.2, 1004.2, 2904.2, 3204.2) of the plurality of volumes (104, 204, 404, 504, 604, 704, 804, 904, 1004, 1204, 1304, 2904, 3004, 3104, 3204) of dielectric materials into or onto the first volume (104.1, 204.1, 404.1, 504.1, 604.1, 704.1, 804.1, 904.1, 1004.1, 1204.1, 1304.1, 2904.1, 3004.1, 3104.1, 3204.1).
A system for canceling acoustic echoes comprising: a microphone configured to pick up sound generated by a sound source and transferred from the sound source to the microphone via an unknown transfer path having an unknown transfer function, and to provide an electrical microphone signal therefrom; an adaptive filter configured to approximate the unknown transfer function with an estimated transfer function and to filter an electrical signal representative of the sound generated by the sound source with the estimated transfer function to provide an estimated signal therefrom, the adaptive filter having an adaptive adaptation step size; and an adaptive post filter configured to filter a difference signal being the difference between the microphone signal and the estimated signal with a post filter transfer function, wherein the post filter transfer function is the difference between one and the adaptive adaptation step size, and the adaptive post filter is configured to have a minimum damping, the minimum damping being limited to a minimum threshold; characterized in that the system further comprises a filter control block that is configured to control the adaptive filter and the adaptive post filter, wherein the filter control block is configured to evaluate an adaptation step size of the adaptive filter dependent on a statistical analysis of a system distance of the adaptive filter. a microphone configured to pick up sound generated by a sound source and transferred from the sound source to the microphone via an unknown transfer path having an unknown transfer function, and to provide an electrical microphone signal therefrom; an adaptive filter configured to approximate the unknown transfer function with an estimated transfer function and to filter an electrical signal representative of the sound generated by the sound source with the estimated transfer function to provide an estimated signal therefrom, the adaptive filter having an adaptive adaptation step size; and an adaptive post filter configured to filter a difference signal being the difference between the microphone signal and the estimated signal with a post filter transfer function, wherein the post filter transfer function is the difference between one and the adaptive adaptation step size, and the adaptive post filter is configured to have a minimum damping, the post filter transfer function is the difference between one and the adaptive adaptation step size, and the adaptive post filter is configured to have a minimum damping, the minimum damping being limited to a minimum threshold; characterized in that the system further comprises a filter control block that is configured to control the adaptive filter and the adaptive post filter, wherein the filter control block is configured to evaluate an adaptation step size of the adaptive filter dependent on a statistical analysis of a system distance of the adaptive filter.
An antenna (800, 900, 1000, 1200) for use in downhole communication or detection, the antenna comprising: at least three printed circuit boards (820A-J, 920A-J, 1020A-J, 1120A-J, 1220A-J) aligned along an axis; a plurality of connecting members (890A-C, 960A-C, 1195A-C) radially positioned around the axis; wherein connections are formed between the printed circuit boards and the connecting members, the connections providing structural support to the at least three printed circuit boards, and wherein each printed circuit board comprises a planar substrate, each of the planar substrates comprises at least one conductive coil (830A-J), each of the printed circuit boards are spaced apart and structurally supported by each of the connecting members, and one of the connecting members provides electrical connectivity between each of the at least three printed circuit boards. at least three printed circuit boards (820A-J, 920A-J, 1020A-J, 1120A-J, 1220A-J) aligned along an axis; a plurality of connecting members (890A-C, 960A-C, 1195A-C) radially positioned around the axis; wherein connections are formed between the printed circuit boards and the connecting members, the connections providing structural support to the at least three printed circuit boards, and wherein each printed circuit board comprises a planar substrate, each of the planar substrates comprises at least one conductive coil (830A-J), each of the printed circuit boards are spaced apart and structurally supported by each of the connecting members, and one of the connecting members provides electrical connectivity between each of the at least three printed circuit boards.
Compressible self-expanding stent for splinting and/or keeping open a cavity, an organ duct and/or a vessel in the human or animal body, whereas the stent is formed of at least one wire and comprises a distal section, a proximal section and a transition section formed therebetween, whereas the distal section has a greater expansion than the proximal section, and these sections comprise a braid, and wherein sections of the wire or wires extending between a proximal and a distal end of the stent are referred to as strands, wherein in the region of the proximal section adjacent to the transition section in the proximal direction, a decoupling region is formed in which at least two strands are twisted together, characterized in that said strands extend approximately in the longitudinal direction of the stent.
Method for controlling an automated clutch during which an engine torque setpoint is based on a demand for torque from the driver and during which the clutch is regulated as a function of the variation in engine speed resulting from this engine torque setpoint, and during which clutch engagement does not begin until after the engine speed has reached a value higher than that of a speed of a primary shaft or higher than a predetermined threshold value, the method comprising at least: - a first phase during which the clutch is kept open and during which the engine speed is brought to a value higher than that of the speed of the primary shaft or than a threshold value; - a second phase which begins as soon as the value of the engine speed is at least equal to the value of the speed of the primary shaft or to said predetermined threshold value, during which phase a clutch torque setpoint is determined as a function of the engine speed and of a speed setpoint, the speed setpoint adopting the value of the engine speed at the start of this second phase, characterized in that the speed setpoint is kept constant throughout the entire duration of the second phase. - a first phase during which the clutch is kept open and during which the engine speed is brought to a value higher than that of the speed of the primary shaft or than a threshold value; - a second phase which begins as soon as the value of the engine speed is at least equal to the value of the speed of the primary shaft or to said predetermined threshold value, during which phase a clutch torque setpoint is determined as a function of the engine speed and of a speed setpoint, the speed setpoint adopting the value of the engine speed at the start of this second phase,
Method for performing an electronic transaction between a first transaction party and a second transaction party using an electronic device operated by the first transaction party, the electronic device having an operating system creating a run-time environment for user applications and authentication software running in a separate operating environment, independent from and inaccessible to said operating system, the electronic device having a memory comprising storage locations, part of the memory being accessible to the operating system, part of the memory being a secure area storage locations of which are not reported to the operating system, the method comprising: providing authentication data in the secure area of said electronic device which authentication data are inaccessible to a user of said electronic device, wherein said secure area is inaccessible to said operating system of said electronic device, thereby rendering the authentication data inaccessible to said user; providing authentication software in said electronic device, the authentication data being accessible to said authentication software, wherein the authentication software is stored in the secure area inaccessible to said operating system activating the authentication software to generate a digital signature from the authentication data, wherein the authentication software is run in a secure processing environment inaccessible to said operating system providing the digital signature to the second transaction party. providing authentication data in the secure area of said electronic device which authentication data are inaccessible to a user of said electronic device, wherein said secure area is inaccessible to said operating system of said electronic device, thereby rendering the authentication data inaccessible to said user; providing authentication software in said electronic device, the authentication data being accessible to said authentication software, wherein the authentication software is stored in the secure area inaccessible to said operating system activating the authentication software to generate a digital signature from the authentication data, wherein the authentication software is run in a secure processing environment inaccessible to said operating system providing the digital signature to the second transaction party.
A therapeutic agent for use in a method of treating Crohn's disease, wherein the therapeutic agent is: (i) a colicin; (ii) a bacterium which produces and releases a colicin; (iii) a food product comprising a bacterium which produces and releases a colicin; or (iv) a polynucleotide that encodes a colicin. (i) a colicin; (ii) a bacterium which produces and releases a colicin; (iii) a food product comprising a bacterium which produces and releases a colicin; or (iv) a polynucleotide that encodes a colicin.
A system for determining track occupation of a track section within a track, the system comprising: • a first tag (1, 1a, 1b) and a second tag (2, 2a, 2b), each tag (1, 1a, 1b, 2, 2a, 2b) comprising a transponder, the first tag (1, 1a, 1b) being mounted at the front end of a vehicle and the second tag (2, 2a, 2b) being mounted at the rear end of the vehicle; • a first tag counter unit (8, 8') and a second tag counter unit (9, 9'), the first tag counter (8, 8') unit being mounted at one end of the track section, the second tag counter unit (9, 9') being mounted at the other end of the track section, each tag counter unit (8, 8', 9, 9') comprising at least one counting device (12, 12a, 12b, 13, 13a, 13b) for incrementing or decrementing a counter value in dependence of the temporal sequence of the detected transponder signals; and • an axle counter evaluator which is connected to the counting devices (12, 12a, 12b, 13, 13a, 13b) of both tag counter units (8, 8', 9, 9') for evaluating whether the track section is free or occupied in dependence of the counter values of the counting devices (12, 12a, 12b, 13, 13a, 13b), whereby each tag counter unit (8, 8', 9, 9') comprising at least two tag readers (10a, 10b, 11a, 11b) for detecting transponder signals, the tag readers (10a, 10b, 11a, 11b) being separated from each other along the track direction. • a first tag (1, 1a, 1b) and a second tag (2, 2a, 2b), each tag (1, 1a, 1b, 2, 2a, 2b) comprising a transponder, the first tag (1, 1a, 1b) being mounted at the front end of a vehicle and the second tag (2, 2a, 2b) being mounted at the rear end of the vehicle; • a first tag counter unit (8, 8') and a second tag counter unit (9, 9'), the first tag counter (8, 8') unit being mounted at one end of the track section, the second tag counter unit (9, 9') being mounted at the other end of the track section, each tag counter unit (8, 8', 9, 9') comprising at least one counting device (12, 12a, 12b, 13, 13a, 13b) for incrementing or decrementing a counter value in dependence of the temporal sequence of the detected transponder signals; and • an axle counter evaluator which is connected to the counting devices (12, 12a, 12b, 13, 13a, 13b) of both tag counter units (8, 8', 9, 9') for evaluating whether the track section is free or occupied in dependence of the counter values of the counting devices (12, 12a, 12b, 13, 13a, 13b), whereby
A process for preparing an F 2 -containing gas comprising the steps of: exciting at least one fluoro compound in a fluoro compound-containing gas by conferring energy on the fluoro compound-containing gas under reduced pressure; and partially or completely converting the excited fluoro compound-containing gas containing the excited fluoro compound into F 2 under normal pressure or overpressure. exciting at least one fluoro compound in a fluoro compound-containing gas by conferring energy on the fluoro compound-containing gas under reduced pressure; and partially or completely converting the excited fluoro compound-containing gas containing the excited fluoro compound into F 2 under normal pressure or overpressure.
Process for preparing compound or a salt thereof comprising (a) reaction of compound with compound in the presence of 1-methylimidazole, wherein the process is carried out without addition of inorganic base. (a) reaction of compound with compound in the presence of 1-methylimidazole, wherein the process is carried out without addition of inorganic base.