mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for outputting a parameter value in a vehicle, comprising at least two light-emitting elements (La to Le), specifically a first and a second light-emitting element (La to Le); wherein at least one basic activation state and one display activation state is activable for each of the at least two light-emitting elements (La to Le); wherein the light-emitting elements (La to Le) in the basic activation state emit light of a basic intensity and in the display activation state emit light of a display intensity, with the display intensity being higher than the basic intensity; and a control unit, which is configured to activate either the basic activation state or the display activation state for the at least two light-emitting elements (La to Le) such that the parameter value is output, characterized in that the control unit is configured to select the basic intensity in dependence on the display intensity. at least two light-emitting elements (La to Le), specifically a first and a second light-emitting element (La to Le); wherein at least one basic activation state and one display activation state is activable for each of the at least two light-emitting elements (La to Le); wherein the light-emitting elements (La to Le) in the basic activation state emit light of a basic intensity and in the display activation state emit light of a display intensity, with the display intensity being higher than the basic intensity; and a control unit, which is configured to activate either the basic activation state or the display activation state for the at least two light-emitting elements (La to Le) such that the parameter value is output, characterized in that the control unit is configured to select the basic intensity in dependence on the display intensity.
A lock system for a landing gear assembly, comprising: a housing; a hook configured to rotate relative to the housing; a lock pin configured to translate into a rotational path of the hook; and an electromechanical actuator configured to translate the lock pin; and characterized by a centering rod located through the hook and mounted to the housing; a first hook biasing member located around the centering rod and configured to bias the hook in a first direction; a second hook biasing member located around the centering rod and configured to bias the hook in a second direction opposite the first direction. a housing; a hook configured to rotate relative to the housing; a lock pin configured to translate into a rotational path of the hook; and an electromechanical actuator configured to translate the lock pin; and characterized by a centering rod located through the hook and mounted to the housing; a first hook biasing member located around the centering rod and configured to bias the hook in a first direction; a second hook biasing member located around the centering rod and configured to bias the hook in a second direction opposite the first direction.
A web-winding core formed as a hollow cylindrical shell, the shell being a sandwich that includes three-layers, the layers including comprising inner and outer skins (12, 14), between which is a filler to which the inner and outer skins are bonded, the filler being formed from a synthetic polymer cellular or a foam material; characterised in that the inner and/or the outer skins (12, 14) are formed from a reinforced composite material that comprises reinforcing fibres disposed within a polymer matrix; and in that the filler is partially or wholly impregnated with a matrix of the inner and outer layers and in that the fibres are one of aramid, ultra-high molecular weight polyethylene, or hemp.
Process of producing neutralized vinegar concentrate, said process comprising the steps of: a) providing a liquid vinegar; b) adding an alkaline potassium compound to said liquid vinegar to produce a neutralized vinegar having a pH of at least 6; and c) concentrating said neutralized vinegar to a dry solids level in the range of above 60 to 70 % (w/w) by evaporation. a) providing a liquid vinegar; b) adding an alkaline potassium compound to said liquid vinegar to produce a neutralized vinegar having a pH of at least 6; and c) concentrating said neutralized vinegar to a dry solids level in the range of above 60 to 70 % (w/w) by evaporation.
A composite passive armor protection having a structure comprising geometric solids, said structure being embedded in a light alloy matrix, wherein said geometric solids are embedded in the light alloy matrix to a level above one half of their total height, characterized in that said structure is made of the geometric solids, resting on brackets, passing through holes in a plate, wherein said brackets have precuts in the walls located at a height above and below the plate, wherein in said precuts are secured rods in such a way that they form a grid, and wherein the rods are fixed in such a way that their longitudinal axes coincide with the axes of the geometric solids.
A compound for use in a method of treating cancer by administering the compound in combination with a selective inhibitor of Aurora A kinase, wherein the selective inhibitor of Aurora A kinase is 4-{[9-chloro-7-(2-fluoro-6-methoxyphenyl)-5 H -pyrimido[5,4- d] benzazepin-2-yl]amino}-2-methoxybenzoic acid, or a pharmaceutically acceptable salt thereof, wherein the compound is an mTORC1/2 inhibitor, wherein the mTORC1/2 inhibitor is 3-(2-amino-1,3-benzoxazol-5-yl)-1-(propan-2-yl)-1H-pyrazolo [3, 4-d] pyrimidin-4-amine, or a pharmaceutically acceptable salt thereof and wherein the cancer is selected from colon cancer, breast cancer, ovarian cancer, renal cell carcinoma, small cell lung cancer, Diffuse large B cell lymphoma, mantle cell lymphoma, and neuroblastoma.
Filter device with a filter housing (2, 6) in which a replaceable filter element is received and which comprises a lid part, wherein the end of the element material of the filter element is delimited by at least one end cap, wherein at least this one end cap of the filter element is positioned on a fluid duct and in that an apparatus for transverse force support for the filter element is provided between this one end cap and the fluid duct, said apparatus supporting the filter element with respect to the fluid duct engaging inside the filter element at least partially at the ends, characterised in that the apparatus for transverse force support is formed by a sleeve which comprises an inwardly retracted edge on one side and forms a surrounding wall on the other side as part of a guide for the fluid duct, and in that a web-like annular flange is formed on the outer circumferential side on the surrounding wall, said flange engaging in a step-shaped recess in the one end cap.
A method of pairing in a system comprising a network server and a plurality of network devices (104, 106, 108), comprising: each network device (104, 106, 108), in response to receiving a pairing sequence input from a user, generating a signal corresponding to the pairing sequence and transmitting the signal to the network server; the network server monitoring for any first signal from a first of the network devices and any second signal from a second of the network devices that are simultaneously received within a common timeframe and comparing a first pairing sequence corresponding to the first signal with a second pairing sequence corresponding to the second signal; and pairing the first network device and the second network device when the second pairing sequence correlates to the first pairing sequence. each network device (104, 106, 108), in response to receiving a pairing sequence input from a user, generating a signal corresponding to the pairing sequence and transmitting the signal to the network server; the network server monitoring for any first signal from a first of the network devices and any second signal from a second of the network devices that are simultaneously received within a common timeframe and comparing a first pairing sequence corresponding to the first signal with a second pairing sequence corresponding to the second signal; and pairing the first network device and the second network device when the second pairing sequence correlates to the first pairing sequence.
A safety needle device (10, 100, 200, 300) comprising: an elongate housing (12, 102, 202, 302) having a notch in an exterior surface and a longitudinal slot (32, 114) proximally of said notch, the elongate housing having a flat surface (12a, 302a); a hub (14, 104) movably mounted within the elongate housing; a hollow needle (16, 106) extending distally from the hub; a dorsal fin (30, 112) rigidly connected to the hub and extending outward through the slot, said needle being covered by the housing when the fin is adjacent the proximal end of the slot and exposed when the fin is adjacent the distal end of the slot; a pair of wings (28a, 28b, 228a, 228b) extending outward from the exterior surface of the elongate housing; characterized by a pair of side extensions (24, 110, 324) extending outward from the flat surface of the elongate housing, each of the side extensions extending longitudinally along the exterior surface of the elongate housing; and a projection pivotably connected to the dorsal fin outside the housing for engaging the notch in the elongate housing when the dorsal fin is adjacent the distal end of the slot to selectively prevent movement of the hub relative to the elongate housing so the needle is exposed for use. an elongate housing (12, 102, 202, 302) having a notch in an exterior surface and a longitudinal slot (32, 114) proximally of said notch, the elongate housing having a flat surface (12a, 302a); a hub (14, 104) movably mounted within the elongate housing; a hollow needle (16, 106) extending distally from the hub; a dorsal fin (30, 112) rigidly connected to the hub and extending outward through the slot, said needle being covered by the housing when the fin is adjacent the proximal end of the slot and exposed when the fin is adjacent the distal end of the slot; a pair of wings (28a, 28b, 228a, 228b) extending outward from the exterior surface of the elongate housing; characterized by a pair of side extensions (24, 110, 324) extending outward from the flat surface of the elongate housing, each of the side extensions extending longitudinally along the exterior surface of the elongate housing; and a projection pivotably connected to the dorsal fin outside the housing for engaging the notch in the elongate housing when the dorsal fin is adjacent the distal end of the slot to selectively prevent movement of the hub relative to the elongate housing so the needle is exposed for use.
A probe for monitoring electrical conductivity of soil solutions comprising: an upper hollow tube section stoppered at one end, a lower hollow tube section capped at its bottom with a porous ceramic material for inserting into soil, a T fitting connecting the other end of the upper hollow tube sections in vertical alignment with the lower hollow tube section, said T fitting having an aperture stoppered, an electric conductivity sensor electrode inserted through the stopper of the upper hollow tube section into the lower hollow tube section, and a vacuum tube (32,34) inserted through the stopper of the aperture of the T fitting extending into the lower hollow tube section, whereby when the probe is inserted into the soil and a vacuum is applied to the probe through the vacuum tube (32,34) ground solution is drawn into the probe through the porous ceramic material to cover the electric conductivity sensor electrode enabling measuring the electrical conductivity of the soil solution, and whereby the ground solution is withdrawn from the probe via the vacuum tube (32,34) and fresh ground solution drawn into the probe without removing the sensor electrode from the probe. an upper hollow tube section stoppered at one end, a lower hollow tube section capped at its bottom with a porous ceramic material for inserting into soil, a T fitting connecting the other end of the upper hollow tube sections in vertical alignment with the lower hollow tube section, said T fitting having an aperture stoppered, an electric conductivity sensor electrode inserted through the stopper of the upper hollow tube section into the lower hollow tube section, and a vacuum tube (32,34) inserted through the stopper of the aperture of the T fitting extending into the lower hollow tube section, whereby when the probe is inserted into the soil and a vacuum is applied to the probe through the vacuum tube (32,34) ground solution is drawn into the probe through the porous ceramic material to cover the electric conductivity sensor electrode enabling measuring the electrical conductivity of the soil solution, and whereby the ground solution is withdrawn from the probe via the vacuum tube (32,34) and fresh ground solution drawn into the probe without removing the sensor electrode from the probe. inserted through the stopper of the aperture of the T fitting extending into the lower hollow tube section, whereby when the probe is inserted into the soil and a vacuum is applied to the probe through the vacuum tube (32,34) ground solution is drawn into the probe through the porous ceramic material to cover the electric conductivity sensor electrode enabling measuring the electrical conductivity of the soil solution, and whereby the ground solution is withdrawn from the probe via the vacuum tube (32,34) and fresh ground solution drawn into the probe without removing the sensor electrode from the probe.
A handle assembly for a delivery catheter for delivering an expandable prosthesis, the catheter having a distal end and a proximal end, the handle assembly comprising: a first hollow elongate member partially housed within the handle assembly; a second hollow elongate member partially housed within the handle assembly, wherein the second hollow elongate member is encompassed along at least a portion of its length by the first hollow elongate member, and wherein the first and second hollow elongate members are axially movable with respect to one another; a first rotatable control knob movably connected to the first hollow elongate member, wherein the handle assembly is configured such that rotation of the first rotatable control knob moves the first hollow elongate member in an axial direction; a second rotatable control knob movably connected to the second hollow elongate member; and a safety button for locking the second rotatable control knob in a desired position, wherein the handle assembly is configured such that rotation of the rotatable second control knob moves the second hollow elongate member in an axial direction, wherein the safety button is configured to be moveable from a first position to a second position, wherein the safety button is configured to prevent rotation of the second control knob when the safety button is in the second position, wherein the safety button is configured to allow rotation of the second control knob when the safety button is in the first position. a first hollow elongate member partially housed within the handle assembly; a second hollow elongate member partially housed within the handle assembly, wherein the second hollow elongate member is encompassed along at least a portion of its length by the first hollow elongate member, and wherein the first and second hollow elongate members are axially movable with respect to one another; a first rotatable control knob movably connected to the first hollow elongate member, wherein the handle assembly is configured such that rotation of the first rotatable control knob moves the first hollow elongate member in an axial direction; a second rotatable control knob movably connected to the second hollow elongate member; and a safety button for locking the second rotatable control knob in a desired position, wherein the handle assembly is configured such that rotation of the rotatable second control knob moves the second hollow elongate member in an axial direction, wherein the safety button is configured to be moveable from a first position to a second position, wherein the safety button is configured to prevent rotation of the second control knob when the safety button is in the second position, wherein the safety button is configured to allow rotation of the second control knob when the safety button is in the first position.
A method for personalizing a telecommunication module, wherein the telecommunication module is firmly incorporated in an end device and personalization data stored on a portable data carrier are loaded (S10, S10.5-S10.9) into the telecommunication module via a data communication connection secured by means of corresponding transport keys (4, 14) of the data carrier and the firmly incorporated telecommunication module, wherein a manufacturer of the telecommunication module and the data carrier initializes the telecommunication module within the scope of a manufacturing process, stores the personalization data in a secure memory area of the data carrier and deposits (S3, S4) corresponding transport keys (4, 14) known only to the manufacturer respectively in the telecommunication module and in the secure memory area of the data carrier, characterized in that at a place of operation of the end device specified by a user, operator or manufacturer of the end device, a contact-type data communication connection is set up (S9; S10.1-S10.4) between the data carrier and the telecommunication module and the personalization data are loaded (S10.5-S10.9) into the telecommunication module, wherein the data carrier loads (S10.6) personalization data, which comprise network access data on at least one telecommunication network, into the telecommunication module, and the end device sends data via a telecommunication connection set up by the telecommunication module by means of the network access data, wherein with the help of an unambiguous module identification of the firmly incorporated telecommunication module the portable data carrier is requested to personalize the telecommunication module.
A method for scheduling a device-to-device, D2D, wireless device using resource blocks, RBs, of active cellular wireless devices in a wireless network, the method comprising: determining a power allocation for each of the RBs based on achieving a target rate for the D2D wireless device and the active cellular wireless devices; scheduling the D2D wireless device based on the determined power allocation; obtaining feedback information from each interfering cellular device in one of a main cell and a neighboring cell, the feedback information is comprised of one data bit; the method being characterized by forwarding the feedback information to the D2D wireless device. determining a power allocation for each of the RBs based on achieving a target rate for the D2D wireless device and the active cellular wireless devices; scheduling the D2D wireless device based on the determined power allocation; obtaining feedback information from each interfering cellular device in one of a main cell and a neighboring cell, the feedback information is comprised of one data bit; the method being characterized by forwarding the feedback information to the D2D wireless device.
An engineered non-pathogenic microbial cell comprising: a first nucleic acid sequence comprising genes encoding a functional type three secretion system (T3SS) wherein the genes encoding the functional T3SS are: acp; ipaA; ipaB; ipaC; ipaD; ipgC; ipgB1; ipgA; icsB; ipgD; ipgE; ipgF; mxiG; mxiH; mxiI; mxiJ; mxiK; mxiN; mxiL; mxiM; mxiE; mxiD; mxiC; mxiA; spal5; spa47; spal3; spa32; spa33; spa24; spa9; spa29; spa40; and virF and/or virB; or homologs of acp; ipaA; ipaB; ipaC; ipaD; ipgC; ipgB1; ipgA; icsB; ipgD; ipgE; ipgF; mxiG; mxiH; mxiI; mxiJ; mxiK; mxiN; mxiL; mxiM; mxiE; mxiD; mxiC; mxiA; spal5; spa47; spal3; spa32; spa33; spa24; spa9; spa29; and spa40; and virF and/or virB; from Shigella spp; Salmonella spp; enteropathogenic E. coli; or Yersinia spp; a second nucleic acid sequence encoding an T3SS-compatible polypeptide; wherein the T3SS-compatible polypeptide comprises a polypeptide sequence which is not endogenously delivered via a T3SS; wherein the engineered microbial cell is non-pathogenic with respect to a mammalian target cell or target mammal; and wherein the engineered microbial cell did not comprise a T3SS prior to being engineered to comprise the first nucleic acid sequence. a first nucleic acid sequence comprising genes encoding a functional type three secretion system (T3SS) wherein the genes encoding the functional T3SS are: acp; ipaA; ipaB; ipaC; ipaD; ipgC; ipgB1; ipgA; icsB; ipgD; ipgE; ipgF; mxiG; mxiH; mxiI; mxiJ; mxiK; mxiN; mxiL; mxiM; mxiE; mxiD; mxiC; mxiA; spal5; spa47; spal3; spa32; spa33; spa24; spa9; spa29; spa40; and virF and/or virB; or homologs of acp; ipaA; ipaB; ipaC; ipaD; ipgC; ipgB1; ipgA; icsB; ipgD; ipgE; ipgF; mxiG; mxiH; mxiI; mxiJ; mxiK; mxiN; mxiL; mxiM; mxiE; mxiD; mxiC; mxiA; spal5; spa47; spal3; spa32; spa33; spa24; spa9; spa29; and spa40; and virF and/or virB; from Shigella spp; Salmonella spp; enteropathogenic E. coli; or Yersinia spp; acp; ipaA; ipaB; ipaC; ipaD; ipgC; ipgB1; ipgA; icsB; ipgD; ipgE; ipgF; mxiG; mxiH; mxiI; mxiJ; mxiK; mxiN; mxiL; mxiM; mxiE; mxiD; mxiC; mxiA; spal5; spa47; spal3; spa32; spa33; spa24; spa9; spa29; spa40; and virF and/or virB; or homologs of acp; ipaA; ipaB; ipaC; ipaD; ipgC; ipgB1; ipgA; icsB; ipgD; ipgE; ipgF; mxiG; mxiH; mxiI; mxiJ; mxiK; mxiN; mxiL; mxiM; mxiE; mxiD; mxiC; mxiA; spal5; spa47; spal3; spa32; spa33; spa24; spa9; spa29; and spa40; and virF and/or virB; from Shigella spp; Salmonella spp; enteropathogenic E. coli; or Yersinia spp; a second nucleic acid sequence encoding an T3SS-compatible polypeptide; wherein the T3SS-compatible polypeptide comprises a polypeptide sequence which is not endogenously delivered via a T3SS; wherein the engineered microbial cell is non-pathogenic with respect to a mammalian target cell or target mammal; and wherein the engineered microbial cell did not comprise a T3SS prior to being engineered to comprise the first nucleic acid sequence.