mhurhangee/patent-ind-claim-en huggingface dataset:
A method to cover a wreck on a bottom surface of a bottom of a water area by using bottom sediment from said bottom, the method comprises: mixing the bottom sediment with water from the water area to achieve a cavity in said bottom, with a cavity is meant a zone in the bottom with partially looser bottom sediment comparing to the bottom sediment that has not been mixed with water, wherein the cavity permits that a landslide of the bottom sediment under and/or around the wreck is achieved, which causes the bottom sediment under and/or around the wreck to move down into the cavity , the cavity being created on such a distance from the wreck and with such a depth that the bottom sediment under and/or around the wreck collapses and moves down into the cavity, wherein a distance (d) between at least one point (p) on the surface of the wreck and said bottom surface is changed when the bottom sediment under and/or around the wreck has moved down into the cavity , wherein while and after the bottom sediment under and/or around the wreck has moved down into the cavity , the wreck is covered with at least the bottom sediment that has been mixed. mixing the bottom sediment with water from the water area to achieve a cavity in said bottom, with a cavity is meant a zone in the bottom with partially looser bottom sediment comparing to the bottom sediment that has not been mixed with water, wherein the cavity permits that a landslide of the bottom sediment under and/or around the wreck is achieved, which causes the bottom sediment under and/or around the wreck to move down into the cavity , the cavity being created on such a distance from the wreck and with such a depth that the bottom sediment under and/or around the wreck collapses and moves down into the cavity, wherein a distance (d) between at least one point (p) on the surface of the wreck and said bottom surface is changed when the bottom sediment under and/or around the wreck has moved down into the cavity , wherein while and after the bottom sediment under and/or around the wreck has moved down into the cavity , the wreck is covered with at least the bottom sediment that has been mixed.
A method for monitoring engine health of an aircraft having a first gas turbine engine and a second gas turbine engine , the method comprising the steps of: obtaining a first turbine gas temperature of the first gas turbine engine and a second turbine gas temperature of the second gas turbine engine from a first flight; relating the first turbine gas temperature and the second turbine gas temperature to each other to define a first value; and comparing the first value to a data set for monitoring the engine health wherein the obtaining step includes obtaining the first turbine gas temperature of the first gas turbine engine and the second turbine gas temperature of the second gas turbine engine from the first flight at a first set of ambient conditions, and wherein the relating step includes using the first set of ambient conditions to standardize the first turbine gas temperature and the second turbine gas temperature to define a first standardized turbine gas temperature and a second standardized turbine gas temperature, respectively, wherein said standardization includes mathematically adjusting the turbine gas temperatures to what they would have been if they were calculated at a standard temperature and a standard rotor speed. obtaining a first turbine gas temperature of the first gas turbine engine and a second turbine gas temperature of the second gas turbine engine from a first flight; relating the first turbine gas temperature and the second turbine gas temperature to each other to define a first value; and comparing the first value to a data set for monitoring the engine health wherein the obtaining step includes obtaining the first turbine gas temperature of the first gas turbine engine and the second turbine gas temperature of the second gas turbine engine from the first flight at a first set of ambient conditions, and wherein the relating step includes using the first set of ambient conditions to standardize the first turbine gas temperature and the second turbine gas temperature to define a first standardized turbine gas temperature and a second standardized turbine gas temperature, respectively, wherein said standardization includes mathematically adjusting the turbine gas temperatures to what they would have been if they were calculated at a standard temperature and a standard rotor speed.
A heating device exhaust pipe arrangement with an integrated muffler, having: a flexurally stiff exhaust pipe , which is manufactured from a regionally perforated metal sheet by round bending and longitudinal welding and has an unperforated curved first pipe section , an unperforated second pipe section and, formed integrally with the first pipe section and the second pipe section , a perforated muffler section between the first pipe section and the second pipe section , and a muffler housing , which covers the exterior of the perforated muffler section and is arranged in such a way that the first pipe section and the second pipe section each extend at least predominantly outside the muffler housing . a flexurally stiff exhaust pipe , which is manufactured from a regionally perforated metal sheet by round bending and longitudinal welding and has an unperforated curved first pipe section , an unperforated second pipe section and, formed integrally with the first pipe section and the second pipe section , a perforated muffler section between the first pipe section and the second pipe section , and a muffler housing , which covers the exterior of the perforated muffler section and is arranged in such a way that the first pipe section and the second pipe section each extend at least predominantly outside the muffler housing .
A compound of the following formula: and stereoisomers and pharmaceutically acceptable salts thereof, for use in the treatment, prevention, or amelioration of an inflammatory autoimmune response, wherein the inflammatory autoimmune response includes at least one of hypertension, psoriasis, or edema. and stereoisomers and pharmaceutically acceptable salts thereof, for use in the treatment, prevention, or amelioration of an inflammatory autoimmune response, wherein the inflammatory autoimmune response includes at least one of hypertension, psoriasis, or edema.
An apparatus in a device, said device being for use in a system operating in accordance with a control area network protocol, said apparatus comprising: a counter configured to use a seed value as an argument of a random function to generate a counter value; an encryption function configured to provide an encryption output, said encryption output being dependent on a key and the counter value, said key being shared between the device and at least one other device in said system, wherein the key which is used changes over time, said encryption output and data to be output being used by the apparatus to provide an encrypted control area network frame; and an output configured to cause output said encrypted control area network frame onto a control area network bus . a counter configured to use a seed value as an argument of a random function to generate a counter value; an encryption function configured to provide an encryption output, said encryption output being dependent on a key and the counter value, said key being shared between the device and at least one other device in said system, wherein the key which is used changes over time, said encryption output and data to be output being used by the apparatus to provide an encrypted control area network frame; and an output configured to cause output said encrypted control area network frame onto a control area network bus .
A fabrication apparatus for - preferably automated or partly automated - fabrication or prefabrication of individual wire portions comprising a plurality of individual wire portions and at least one organization apparatus for receiving and organizing the plurality of individual prepared wire portions from the fabrication apparatus , wherein the at least one organization apparatus includes a main body and an organization portion for receiving the wire portions , wherein the organization portion is provided by a gap extending along the main body for threading on the plurality of individual wire portions along the gap , wherein the at least one organization apparatus can be releasably mounted to the fabrication apparatus , wherein at least one wire termination is arranged on each wire portion , and wherein the gap has two distal ends (E1, E2), wherein the first end (E1) has an insertion device for insertion of the individual wire portions , characterized in that the gap has a minimum gap width (SB) corresponding substantially to a wire diameter (KD) of the individual wire portions and a maximum gap width (SB) smaller than the termination diameter (AD) of the at least one wire termination arranged on the wire portion , wherein the connection between the plurality of individual wire portions and the organization apparatus is a positively locking connection, wherein the main body is formed by a hollow chamber profile member, and wherein the second end (E2) of the gap has an abutment portion for abutment engagement of the wire portions .
Therapeutic cold pack or hot pack system comprising: - an instant and/or disposable cold pack or hot pack having a front side wall and a back side wall being sealed together along a sealed edge or edges; - wherein the sealed edge or edges of the cold pack or hot pack extend along a rim surface ; - an adhesive or self-adherent elastic bandage or foil attached to the cold pack or hot pack ; wherein a first end part of the bandage or foil is attached to the cold pack or hot pack , and wherein a major part of the bandage or foil is rolled or coiled around a coiling part ; characterized in that the cold/hot pack system further comprises a protective cover attached to the back side wall ; wherein the protective cover comprises a patch or plaster, which is water-repellent; and wherein the coiling part is larger than the width of the coiled up bandage or foil . - an instant and/or disposable cold pack or hot pack having a front side wall and a back side wall being sealed together along a sealed edge or edges; - wherein the sealed edge or edges of the cold pack or hot pack extend along a rim surface ; - an adhesive or self-adherent elastic bandage or foil attached to the cold pack or hot pack ;
Method for operating a cooking hob for maintaining a state, which exists at the time of activation of the maintaining operation, at a cooking point of the cooking hob with a cooking vessel on it, comprising the steps of: - a cooking vessel being placed onto a cooking point of the hob and being heated by the cooking point or an inductive heating device of the cooking point according to requirements, - detecting a change in temperature of the cooking vessel as a change in state, - detecting the heating process of the cooking vessel and evaluating of the supplied power and/or a temperature of the cooking vessel and/or the profile thereof with respect to time, - activating the maintaining operation by an operator for maintaining the state, which is existing at this time, at the cooking point with the cooking vessel placed on it, characterized by the further steps of: - differentiating the state at the cooking point existing at this time firstly into a process at the boiling point of water and secondly into a process which is different therefrom or into a process which takes place at a different temperature without a phase transition of water, - wherein, in the case of a decision for of a process at the boiling point of water, the power supply at this time is then kept largely constant or a customary power supply for continued boiling is set, - wherein, in the case of a decision for of a process not at the boiling point of water, the process is regulated at a constant temperature of the cooking vessel by adapting the power supply. - a cooking vessel being placed onto a cooking point of the hob and being heated by the cooking point or an inductive heating device of the cooking point according to requirements, - detecting a change in temperature of the cooking vessel as a change in state, - detecting the heating process of the cooking vessel and evaluating of the supplied power and/or a temperature of the cooking vessel and/or the profile thereof with respect to time, - activating the maintaining operation by an operator for maintaining the state, which is existing at this time, at the cooking point with the cooking vessel placed on it, - differentiating the state at the cooking point existing at this time firstly into a process at the boiling point of water and secondly into a process which is different therefrom or into a process which takes place at a different temperature without a phase transition of water, - wherein, in the case of a decision for of a process at the boiling point of water, the power supply at this time is then kept largely constant or a customary power supply for continued boiling is set, - wherein, in the case of a decision for of a process not at the boiling point of water, the process is regulated at a constant temperature of the cooking vessel by adapting the power supply.
Method for fastening a multiplicity of components (TSO, TS1) of the same type by bracing by means of dissimilar caulking pieces (STO, ST1, ST2), wherein a) a first component (TS1) by an actuator (AK) is braced in a force-fitting manner in relation to a first caulking piece (ST1), wherein a first bracing parameter (VP1) is measured by a first sensor (S1) during the bracing procedure; b) a second caulking piece (ST2) is selected so as to depend on the first bracing parameter (VP1); and c) a second component by the actuator (AK) is braced in a force-fitting manner in relation to the selected second caulking piece (ST2). a) a first component (TS1) by an actuator (AK) is braced in a force-fitting manner in relation to a first caulking piece (ST1), wherein a first bracing parameter (VP1) is measured by a first sensor (S1) during the bracing procedure; b) a second caulking piece (ST2) is selected so as to depend on the first bracing parameter (VP1); and c) a second component by the actuator (AK) is braced in a force-fitting manner in relation to the selected second caulking piece (ST2).
A measuring instrument comprising a display on which measurements are displayed, wherein the measuring instrument comprises a cylindrical body , a spindle provided in a manner capable of a displacement in an axial direction of the body and a display controller for displaying the displacement of the spindle on the display , wherein the display is provided by an organic electroluminescent display device comprising an assembly of organic electroluminescence devices or an electronic paper, the display is a dot-matrix type in which display elements are arranged in a matrix, the display is provided with a scale-segment image display area that displays a plurality of scale-segment images arranged in a circle and a reversed image display area that reversely displays the scale segment image corresponding to an angular area in accordance with the measurements, and the measuring instrument is provided with a scale-interval switch that switches an interval between the scale segment images in accordance with a display resolution; wherein a display surface of the display is curved; and wherein the display is provided on a circumference of the body along the axial direction.
An automatic dishwashing composition, comprising: a builder; a phosphonate; a nonionic surfactant; and a dispersant polymer, comprising: (a) 10 to 65 wt% of structural units of formula I wherein each R 1 and R 2 is independently selected from a hydrogen and a C 1-3 alkyl group; (b) 10 to 80 wt% of structural units of formula II wherein each R 3 is independently selected from a hydrogen and a -C(O)CH 3 group; and (c) 10 to 65 wt% of structural units of formula III wherein each R 4 is independently selected from a hydrogen and a -CH 3 group; and wherein at least one of R 1 and R 2 is a C 1-3 alkyl group in at least 1 mol% of the structural units of formula I in the dispersant polymer; wherein the dispersant polymer has a lactone end group and wherein the dispersant polymer has a weight average molecular weight of 1,500 to 6,000 Daltons as measured in a conventional manner with gel permeation chromatography (GPC). a builder; a phosphonate; a nonionic surfactant; and a dispersant polymer, comprising: (a) 10 to 65 wt% of structural units of formula I wherein each R 1 and R 2 is independently selected from a hydrogen and a C 1-3 alkyl group; (b) 10 to 80 wt% of structural units of formula II wherein each R 3 is independently selected from a hydrogen and a -C(O)CH 3 group; and (c) 10 to 65 wt% of structural units of formula III (a) 10 to 65 wt% of structural units of formula I wherein each R 1 and R 2 is independently selected from a hydrogen and a C 1-3 alkyl group; (b) 10 to 80 wt% of structural units of formula II wherein each R 3 is independently selected from a hydrogen and a -C(O)CH 3 group; and (c) 10 to 65 wt% of structural units of formula III wherein each R 4 is independently selected from a hydrogen and a -CH 3 group; and wherein at least one of R 1 and R 2 is a C 1-3 alkyl group in at least 1 mol% of the structural units of formula I in the dispersant polymer; wherein the dispersant polymer has a lactone end group and wherein the dispersant polymer has a weight average molecular weight of 1,500 to 6,000 Daltons as measured in a conventional manner with gel permeation chromatography (GPC).
A process for preparing a self-contained single serving pasta food product comprising: cooking a predetermined amount of pasta until hydrated to 45%-50% of its specific weight ; cooling the pasta to below 83 degrees Celsius in water at a temperature between 20 and 40 degrees Celsius ; creating a plasticizing water-based film surrounding the cooked pasta ; adding an accompaniment to the pasta to create a mixture ; adding the mixture to a mold ; heating the molded mixture ; and removing the heated molded mixture from the mold , characterized in that the plasticizing water-based film is created by adding 3% - 7% of starch containing water from the cooking step to the cooked pasta, and in that egg whites having 75% to 95% specific volume to that of the cooked pasta are folded into the mixture prior to adding the mixture to the mold. cooking a predetermined amount of pasta until hydrated to 45%-50% of its specific weight ; cooling the pasta to below 83 degrees Celsius in water at a temperature between 20 and 40 degrees Celsius ; creating a plasticizing water-based film surrounding the cooked pasta ; adding an accompaniment to the pasta to create a mixture ; adding the mixture to a mold ; heating the molded mixture ; and removing the heated molded mixture from the mold ,
A control integrated circuit , control IC, for controlling a current source configured to provide a current (I LM ) to lighting means , optional at least one light emitting diode, LED; wherein the control IC comprises - a controller for controlling the current (I LM ), - a modulator for generating, based on an output signal (C out ) of the controller , a periodically changing signal (PS), wherein an amplitude of the periodically changing signal (PS) periodically changes with a first frequency around an amplitude of the output signal (C out ) of the controller , and - a generator for generating, based on the periodically changing signal (PS), a control signal (CS) for controlling the current source ; wherein - the generator is configured to update the control signal (CS) according to a pulse signal (clk) having a second frequency that is greater than the first frequency; characterised in that - the generator is configured to provide the pulse signal (clk) to the modulator ; and - the modulator is configured to update, based on the pulse signal (clk), the amplitude of the periodically changing signal (PS) so that the amplitude of the periodically changing signal (PS) periodically changes in steps. - a controller for controlling the current (I LM ), - a modulator for generating, based on an output signal (C out ) of the controller , a periodically changing signal (PS), wherein an amplitude of the periodically changing signal (PS) periodically changes with a first frequency around an amplitude of the output signal (C out ) of the controller , and - a generator for generating, based on the periodically changing signal (PS), a control signal (CS) for controlling the current source ; wherein - the generator is configured to update the control signal (CS) according to a pulse signal (clk) having a second frequency that is greater than the first frequency; characterised in that - the generator is configured to provide the pulse signal (clk) to the modulator ; and - the modulator is configured to update, based on the pulse signal (clk), the amplitude of the periodically changing signal (PS) so that the amplitude of the periodically changing signal (PS) periodically changes in steps.
Method for determining the insulation resistance (R iso ) of a photovoltaic system relative to ground (PE), having a photovoltaic inverter with at least one DC input for connecting to at least one photovoltaic module or a string of a plurality of photovoltaic modules , a DC/DC converter with an input diode (D Boost ), an intermediate circuit , a DC/AC converter , an AC disconnector , an AC output for connection to a supply network and/or consumer , a control device , and with a measuring device with a voltage divider containing at least two resistors (R 1 , R 2 ), a switch (S iso ) for connecting a resistor (R 1 ) of the voltage divider and a voltage measuring unit for recording measured voltages (U Mi ) on at least one resistor (R 2 ) of the voltage divider with the switch (Siso) of the voltage divider open and closed, and for determining the insulation resistance (R iso ) from the temporal waveform of the recorded measured voltages (U Mi ), characterized in that the voltage required for the measurement is provided by the intermediate circuit in the form of the intermediate circuit voltage (U ZK ), and the measured voltages (U Mi ) are recorded with the AC disconnector open while the DC input is short-circuited with an input short-circuit switch (S Boost ), which applies the intermediate circuit voltage (U ZK ) to the DC input in the reverse direction, that measured voltages (U M1 , U M2 ) are each recorded with the switch (S iso ) of the voltage divider open and closed, and the insulation resistance (R iso ) is determined from the measured values of the two recorded measured voltages (U M1 , U M2 ) with the switch (S iso ) of the voltage divider open and closed.