mhurhangee/ep-ind-claims huggingface dataset:
Control unit comprising a processor and a memory connected to the processor the processor comprising a first state and a second state and being adapted to switch between the first state and the second state, wherein in the first state a non-trusted system is active and in the second state a trusted system is active, wherein the processor includes a plurality of privilege levels, wherein each privilege level has from the lowest privilege level to the highest privilege level an increased access to the processor and/or the memory, wherein the control unit comprises a system monitor controlling the activation of the first state and the second state, wherein the system monitor is in the highest privilege level, the memory including a first portion assigned to the trusted system and a second portion assigned to the non-trusted system, wherein the system monitor is adapted to inhibit the access of the non-trusted system to the first portion of the memory, wherein the trusted system includes a safety module and at least one trusted module (32, 34), the at least one trusted module (32, 34) being loaded in a chain of trust and running on the safety module, wherein the safety module is running in a privilege level below the highest privilege level, wherein the safety module being adapted to control access of the at least one trusted module to a predefined area (56, 60) of the second portion of the memory, wherein the predefined area (56, 60) is assigned to a safety qualified module (36, 40) provided in the non-trusted system, wherein the safety module is a safety qualified module.
A process for the preparation of a spinnable composition (sC) comprising the step mixing 80 to 99.5 % by weight of at least one terephthalate polyester, 0.49 to 19.9 % by weight of at least one aliphatic-aromatic polyester obtainable by polymerization of at least the following monomers: at least one aliphatic 1,ω-diol, at least one aliphatic 1,ω-dicarboxylic acid compound, and at least one aromatic 1,ω-dicarboxylic acid compound, 0.01 to 3 % by weight of at least one oligomer obtainable by polymerization of at least the following monomers: at least one vinylic monomer containing no glycidyl group, and at least one vinylic monomer containing a glycidyl group, and 0 to 5 % by weight of at least one additive, wherein the % by weight are based in each case on the total weight of the components,, and optionally mixed in order to obtain the spinnable composition (sC).
A vehicle control device comprising: a first control unit that executes, when an abnormality of a driver of a vehicle is detected, stop control which automatically decelerates and then stops the vehicle; a second control unit that executes, when the vehicle is determined to have a risk of collision, deceleration control which automatically decelerates the vehicle; a determination unit that identifies an object around the vehicle as a target candidate of the collision and determines whether or not there is the risk of the collision with the identified target candidate; and a setting unit that sets, when the abnormality is detected, an operation mode of the deceleration control to a special mode from a normal mode, the normal mode being provided for cases in which the abnormality is undetected, wherein the determination unit expands a range for identifying the object around the vehicle as the target candidate of the collision in the special mode as compared with the range in the normal mode, the vehicle control device being characterized in that the determination unit identifies the object that has been continuously detected for a predetermined first period or longer as the target candidate in the normal mode, and identifies the object that has been continuously detected for a predetermined second period or longer as the target candidate in the special mode, the predetermined second period being shorter than the predetermined first period. a first control unit that executes, when an abnormality of a driver of a vehicle is detected, stop control which automatically decelerates and then stops the vehicle; a second control unit that executes, when the vehicle is determined to have a risk of collision, deceleration control which automatically decelerates the vehicle; a determination unit that identifies an object around the vehicle as a target candidate of the collision and determines whether or not there is the risk of the collision with the identified target candidate; and a setting unit that sets, when the abnormality is detected, an operation mode of the deceleration control to a special mode from a normal mode, the normal mode being provided for cases in which the abnormality is undetected, wherein the determination unit expands a range for identifying the object around the vehicle as the target candidate of the collision in the special mode as compared with the range in the normal mode, the vehicle control device being characterized in that the determination unit identifies the object that has been continuously detected for a predetermined first period or longer as the target candidate in the normal mode, and identifies the object that has been continuously detected for a predetermined second period or longer as the target candidate in the special mode, the predetermined second period being shorter than the predetermined first period.
A method of measuring depth and/or azimuth of logging data, the logging data being related to at least one property of a zone (GF, CS, CA) surrounding a wellbore and being measured by at least a sensor array (SA1D, SA2D), the method comprising the steps of: - acquiring and storing a first logging data frame (F11, F21) corresponding to a first position of the sensor array, - acquiring and storing a second logging data frame (F12, F22) corresponding to a second position of the sensor array, and - comparing the first (F11, F21) and second (F12, F22) logging data frame, wherein the first and second position are such that the second logging data frame (F12, F22) overlaps at least partially the first logging data frame (F11, F21), characterized in that the method further comprises the steps of: - calculating a relative change in the depth (ΔDP) and/or azimuth (ΔAZ) of logging data measured by the sensor array (SA1D, SA2D) between the first (F11, F21) and second (F12, F22) logging data frame, and - calculating an actual depth value and/or an actual azimuth value of logging data based on the relative change in the depth and/or azimuth of logging data and a prior estimation of the depth and/or azimuth of logging data. - acquiring and storing a first logging data frame (F11, F21) corresponding to a first position of the sensor array, - acquiring and storing a second logging data frame (F12, F22) corresponding to a second position of the sensor array, and - comparing the first (F11, F21) and second (F12, F22) logging data frame, - calculating a relative change in the depth (ΔDP) and/or azimuth (ΔAZ) of logging data measured by the sensor array (SA1D, SA2D) between the first (F11, F21) and second (F12, F22) logging data frame, and - calculating an actual depth value and/or an actual azimuth value of logging data based on the relative change in the depth and/or azimuth of logging data and a prior estimation of the depth and/or azimuth of logging data.
A television receiving apparatus comprising: a receiving unit configured to receive expected waves and interference waves and comprising a tuned circuit having multiple band-pass filter stages and switches (302, 304) between the band-pass filter stages configured to output an output signal to the following filter stage or to ignore the following filter stage; a control unit (108, 110); and a memory unit storing, as channel scan data, a list of channels and their respective signal strengths acquired by a channel scan; wherein a difference with the signal strength of the channel having the expected waves and the channels above and below the channel having the expected waves is calculated on the basis of the channel scan data, and wherein the control unit (108, 110) is configured to ignore filter stages of the tuned circuit by controlling the switches (302, 304) and to set the ignored filter stages of the multiple filter stages into a sleep state having a lower electricity consumption as in the operational state dependent on the calculated difference so as to achieve electricity consumption saving. a receiving unit configured to receive expected waves and interference waves and comprising a tuned circuit having multiple band-pass filter stages and switches (302, 304) between the band-pass filter stages configured to output an output signal to the following filter stage or to ignore the following filter stage; a control unit (108, 110); and a memory unit storing, as channel scan data, a list of channels and their respective signal strengths acquired by a channel scan; wherein a difference with the signal strength of the channel having the expected waves and the channels above and below the channel having the expected waves is calculated on the basis of the channel scan data, and wherein the control unit (108, 110) is configured to ignore filter stages of the tuned circuit by controlling the switches (302, 304) and to set the ignored filter stages of the multiple filter stages into a sleep state having a lower electricity consumption as in the operational state dependent on the calculated difference so as to achieve electricity consumption saving.
Rotation rate sensor with a substrate with a main plane of extent and with at least a first structure movable with respect to the substrate and with at least a second structure movable with respect to the substrate and with respect to the first structure, wherein the rotation rate sensor comprises at least a first drive structure for deflecting the first structure out of a rest position of the first structure with a movement component substantially parallel to a first axis, wherein the rotation rate sensor comprises at least a second drive structure for deflecting the second structure out of a rest position of the second structure with a movement component substantially parallel to the first axis, wherein the first structure and the second structure can be excited to oscillate substantially in counter-phase with movement components substantially parallel to the first axis, wherein the first drive structure has at least a first spring fastened to the substrate in such a way that the first spring counteracts pivoting of the first structure substantially about an axis extending parallel to a second axis extending perpendicular to the main plane of extent, wherein the second drive structure has at least a second spring fastened to the substrate in such a way that the second spring counteracts pivoting of the second structure substantially about a further axis extending parallel to the second axis, characterized in that the first spring and/or the second spring comprise/comprises at least a substrate-mounted first spring beam, at least a substrate-mounted second spring beam, at least a flexurally rigid beam connecting the first spring beam and the second spring beam, at least a third spring beam connecting the flexurally rigid beam and the respective drive structure (9, 11), and at least a fourth spring beam connecting the flexurally rigid beam and the respective drive structure (9, 11).
A method of joining first and second portions (1,2) of a dental framework to form an integrated dental framework, wherein the first and second portions (1,2) of dental framework are each independently formed of a composition comprising a polymeric material, wherein the polymeric material comprises a repeat unit of formula: wherein t1 and w1 independently represent 0 or 1 and v1 represents 0, 1 or 2; the method comprising: providing a male member on a first joint surface of the first portion and a female member on a second joint surface of the second portion, wherein the male and female members are arranged to mate together to hold the first and second portions together with the first and second joint surfaces mutually inter-engaged in the integrated dental framework; bringing the first and second joint surfaces into inter-engagement with the male and female members mated together; and welding the first and second joint surfaces together by ultrasonic welding. providing a male member on a first joint surface of the first portion and a female member on a second joint surface of the second portion, wherein the male and female members are arranged to mate together to hold the first and second portions together with the first and second joint surfaces mutually inter-engaged in the integrated dental framework; bringing the first and second joint surfaces into inter-engagement with the male and female members mated together; and welding the first and second joint surfaces together by ultrasonic welding.
A method for reducing the content in water-soluble impurities originating from a waste which is used before a crystallization step in a manufacturing process that produces a crystalline product comprising sodium carbonate, sodium sulfite, or sodium bicarbonate, the method comprising the following steps: providing a waste comprising a reclaimed solid recovered from a tailings ponds, said solid comprising water-soluble impurities selected from the group consisting of silicates, organic foam-causing agents, and combinations thereof, said reclaimed solid further comprising sodium carbonate decahydrate; performing a magnesium treatment on at least a portion of said waste to form a treated solution, said treatment comprising adding a magnesium compound to the waste in order to form water-insoluble matter with at least a portion of said impurities, wherein the waste is dissolved in an aqueous medium before, during, or after the magnesium treatment, and wherein the magnesium compound comprises one or more water-soluble magnesium salts; passing a liquor comprising at least a portion of said treated solution though at least one separation unit to obtain a purified solution; and forming crystals comprising sodium carbonate, sodium sulfite, or sodium bicarbonate by performing at least the following step: passing at least a portion of the purified solution in a reactor and/or a crystallizer under conditions suitable to form said crystals, wherein the treatment with magnesium is effective in achieving a content of 100 ppm Si or less in the purified solution which is fed to the crystallizer and/or the reactor. providing a waste comprising a reclaimed solid recovered from a tailings ponds, said solid comprising water-soluble impurities selected from the group consisting of silicates, organic foam-causing agents, and combinations thereof, said reclaimed solid further comprising sodium carbonate decahydrate; performing a magnesium treatment on at least a portion of said waste to form a treated solution, said treatment comprising adding a magnesium compound to the waste in order to form water-insoluble matter with at least a portion of said impurities, wherein the waste is dissolved in an aqueous medium before, during, or after the magnesium treatment, and wherein the magnesium compound comprises one or more water-soluble magnesium salts; passing a liquor comprising at least a portion of said treated solution though at least one separation unit to obtain a purified solution; and forming crystals comprising sodium carbonate, sodium sulfite, or sodium bicarbonate by performing at least the following step: passing at least a portion of the purified solution in a reactor and/or a crystallizer under conditions suitable to form said crystals,
A method of making a component with a passive strain indicator, the method comprising: forming the component, the component comprising an outer surface; forming the passive strain indicator, the passive strain indicator comprising a shim and a plurality of fiducial markers on the shim; and attaching at least a portion of the shim to the outer surface of the component; wherein forming the component and forming the passive strain indicator are performed separately prior to attaching at least a portion of the shim to the outer surface of the component, wherein the plurality of fiducial markers are formed on the shim by deforming selected locations on the shim, characterized in that the plurality of fiducial markers are formed on the shim by deforming selected locations on the shim, wherein deforming selected locations on the shim comprises forming indentations in selected locations on a front surface of the shim, wherein attaching comprises integrally joining at least a portion of the strain indicator to the outer surface of the component such that at least said portion is unified with the component, wherein the component is a combustion component or hot gas path component of an industrial gas turbine or steam turbine. forming the component, the component comprising an outer surface; forming the passive strain indicator, the passive strain indicator comprising a shim and a plurality of fiducial markers on the shim; and attaching at least a portion of the shim to the outer surface of the component; wherein forming the component and forming the passive strain indicator are performed separately prior to attaching at least a portion of the shim to the outer surface of the component, wherein the plurality of fiducial markers are formed on the shim by deforming selected locations on the shim, characterized in that the plurality of fiducial markers are formed on the shim by deforming selected locations on the shim, wherein deforming selected locations on the shim comprises forming indentations in selected locations on a front surface of the shim, wherein attaching comprises integrally joining at least a portion of the strain indicator to the outer surface of the component such that at least said portion is unified with the component, wherein the component is a combustion component or hot gas path component of an industrial gas turbine or steam turbine.
A laminated synthetic resin sheet comprising a coating layer containing an acrylic resin on at least one surface of a substrate layer containing a polycarbonate resin with a viscosity-average molecular weight of 18,000-35,000 that is obtained by reacting a dihydric phenol and a carbonate binder using a monohydric phenol represented by General formula below as a terminating agent: (wherein, R 1 represents an alkyl group with a carbon number of 8-36, or an alkenyl group with a carbon number of 8-36, R 2 -R 5 each represent hydrogen, halogen or an optionally substituted alkyl group with a carbon number of 1-20 or aryl group with a carbon number of 6-12, and the substituent is halogen, an alkyl group with a carbon number of 1-20 or an aryl group with a carbon number of 6-12). (wherein, R 1 represents an alkyl group with a carbon number of 8-36, or an alkenyl group with a carbon number of 8-36, R 2 -R 5 each represent hydrogen, halogen or an optionally substituted alkyl group with a carbon number of 1-20 or aryl group with a carbon number of 6-12, and the substituent is halogen, an alkyl group with a carbon number of 1-20 or an aryl group with a carbon number of 6-12).
A base for an electronics module, said base comprising: a main wall; a recess defined in a rear face of the main wall, said recess adapted to receive at least one flange of an associated mounting rail; first and second movable latch arms (20, 22) located adjacent the recess, each of said first and second latch arms including a rail capture tab that projects from a first part of the first and second latch arms, respectively, each of said first and second latch arms further including a second part that extends transversely from said first part so as to define an L-shape, wherein, for each of said first and second latch arms (20, 22), at least part of the respective rail capture tab of the latch arm is aligned with a longitudinal axis of the second part of the latch arm, each of said first and second latch arms (20, 22) being selectively resiliently movable between a latched position and an unlatched position, wherein the rail capture tabs of the first and second latch arms are withdrawn relative to said recess when the first and second latch arms are in their respective unlatched positions and wherein the rail capture tabs of the first and second latch arms are extended relative to the recess so as to project into the recess when the first and second latch arms are in their respective latched positions, and wherein said first and second latch arms and said main wall of said base are defined as a one-piece modelled polymeric construction. a main wall; a recess defined in a rear face of the main wall, said recess adapted to receive at least one flange of an associated mounting rail; first and second movable latch arms (20, 22) located adjacent the recess, each of said first and second latch arms including a rail capture tab that projects from a first part of the first and second latch arms, respectively, each of said first and second latch arms further including a second part that extends transversely from said first part so as to define an L-shape, wherein, for each of said first and second latch arms (20, 22), at least part of the respective rail capture tab of the latch arm is aligned with a longitudinal axis of the second part of the latch arm, each of said first and second latch arms (20, 22) being selectively resiliently movable between a latched position and an unlatched position, wherein the rail capture tabs of the first and second latch arms are withdrawn relative to said recess when the first and second latch arms are in their respective unlatched positions and wherein the rail capture tabs of the first and second latch arms are extended relative to the recess so as to project into the recess when the first and second latch arms are in their respective latched positions, and wherein said first and second latch arms and said main wall of said base are defined as a one-piece modelled polymeric construction.
A skin interface device for an implantable cardiac assist device, comprising: a SID cap comprising a first housing, an annular sleeve, and a first annular winding disposed over said annular sleeve; and a SID base comprising a second housing formed to include a tubular portion, a cylindrical member disposed in said tubular portion, and a second annular winding disposed around said cylindrical member; wherein: said SID cap is configured to be rotationally attached to said SID base; when said SID cap is attached to said SID base, said second annular winding is disposed within said first annular winding; when said SID cap is attached to said SID base, the relative positions of said first annular winding and said second annular winding are fixed both laterally and vertically. a SID cap comprising a first housing, an annular sleeve, and a first annular winding disposed over said annular sleeve; and a SID base comprising a second housing formed to include a tubular portion, a cylindrical member disposed in said tubular portion, and a second annular winding disposed around said cylindrical member; wherein: said SID cap is configured to be rotationally attached to said SID base; when said SID cap is attached to said SID base, said second annular winding is disposed within said first annular winding; when said SID cap is attached to said SID base, the relative positions of said first annular winding and said second annular winding are fixed both laterally and vertically. said SID cap is configured to be rotationally attached to said SID base; when said SID cap is attached to said SID base, said second annular winding is disposed within said first annular winding; when said SID cap is attached to said SID base, the relative positions of said first annular winding and said second annular winding are fixed both laterally and vertically.