mhurhangee/ep-ind-claims huggingface dataset:
A process comprising: continuously charging into a reactor a mixture comprising: a vinylic monomer, the vinylic monomer comprising a (meth)acrylic monomer, or a styrenic monomer and a (meth)acrylic monomer; up to 5 wt% of a polymerization initiator; and from 5 wt% to 80 wt% of a reaction solvent; maintaining the reactor at a temperature of from 120°C to 165°C to produce an oligomer from the vinylic monomer; and isolating the oligomer; wherein: the oligomer has an insubstantial amount of olefinic unsaturation, characterized by an absence of a significant IR absorption in the range of 1645 cm -1 to 1610 cm -1 or an absence of a significant resonance in the range of 4.5 to 5.5 ppm in the 1 H NMR, referenced to tetramethylsilane; the significant IR absorption or the 1 H NMR resonance is one that is regarded as a definitive signal for olefinic unsaturation; and a residence time of the reaction mixture is from 5 minutes to 60 minutes. continuously charging into a reactor a mixture comprising: a vinylic monomer, the vinylic monomer comprising a (meth)acrylic monomer, or a styrenic monomer and a (meth)acrylic monomer; up to 5 wt% of a polymerization initiator; and from 5 wt% to 80 wt% of a reaction solvent; a vinylic monomer, the vinylic monomer comprising a (meth)acrylic monomer, or a styrenic monomer and a (meth)acrylic monomer; up to 5 wt% of a polymerization initiator; and from 5 wt% to 80 wt% of a reaction solvent; maintaining the reactor at a temperature of from 120°C to 165°C to produce an oligomer from the vinylic monomer; and isolating the oligomer; wherein: the oligomer has an insubstantial amount of olefinic unsaturation, characterized by an absence of a significant IR absorption in the range of 1645 cm -1 to 1610 cm -1 or an absence of a significant resonance in the range of 4.5 to 5.5 ppm in the 1 H NMR, referenced to tetramethylsilane; the significant IR absorption or the 1 H NMR resonance is one that is regarded as a definitive signal for olefinic unsaturation; and a residence time of the reaction mixture is from 5 minutes to 60 minutes. the oligomer has an insubstantial amount of olefinic unsaturation, characterized by an absence of a significant IR absorption in the range of 1645 cm -1 to 1610 cm -1 or an absence of a significant resonance in the range of 4.5 to 5.5 ppm in the 1 H NMR, referenced to tetramethylsilane; the significant IR absorption or the 1 H NMR resonance is one that is regarded as a definitive signal for olefinic unsaturation; and a residence time of the reaction mixture is from 5 minutes to 60 minutes.
A system for extracting plaque from a vasculature, the system comprising: a balloon guide catheter comprising a balloon guide catheter distal end, an expandable proximal balloon positioned approximate the balloon guide catheter distal end, and a device delivery lumen extending through the balloon guide catheter; an inner tube extending through the device delivery lumen, the inner tube comprising a tube distal end and an expandable distal occlusion element positioned approximate the tube distal end and movable to exit the device delivery lumen from the balloon guide catheter distal end; and an adjustable plaque displacement apparatus positioned within the device delivery lumen, the adjustable plaque displacement apparatus being movable in at least one of a longitudinal and rotational direction in relation to the balloon guide catheter; and characterised in that the inner tube comprises an opening, and wherein the adjustable plaque displacement apparatus comprises an incision tool positioned within the inner tube and configured to be movable to exit the opening in the inner tube. a balloon guide catheter comprising a balloon guide catheter distal end, an expandable proximal balloon positioned approximate the balloon guide catheter distal end, and a device delivery lumen extending through the balloon guide catheter; an inner tube extending through the device delivery lumen, the inner tube comprising a tube distal end and an expandable distal occlusion element positioned approximate the tube distal end and movable to exit the device delivery lumen from the balloon guide catheter distal end; and an adjustable plaque displacement apparatus positioned within the device delivery lumen, the adjustable plaque displacement apparatus being movable in at least one of a longitudinal and rotational direction in relation to the balloon guide catheter; and characterised in that the inner tube comprises an opening, and wherein the adjustable plaque displacement apparatus comprises an incision tool positioned within the inner tube and configured to be movable to exit the opening in the inner tube.
A method for a vehicle comprising at least one wheel suspension with at least one damper, wherein the at least one damper is such that it can adjust its damping resistance between a first damping mode and at least a second damping mode, wherein the at least second damping mode presents a larger damping resistance than a damping resistance of the first damping mode, and with at least one sensing element of the vehicle, and with an electronic control unit being in communicative contact with the damper, wherein the electronic control unit is configured to receive at least one signal from the at least one sensing element, characterized in that said method comprising: - the electronic control unit performing a step of identifying if the vehicle is in a first situation during driving of said vehicle which will lead to a subsequent impact force on the at least one wheel suspension which is of a magnitude such that the at least one damper, when in its first damping mode, will reach a position where no further damping can be performed by using the information of the sensing element, and wherein the first situation is a situation where at least one side of the vehicle is airborne, or the complete vehicle is airborne, wherein the step of identifying comprises using the sensing element to identify that the vehicle has become airborne with a certain altitude above the ground which will lead to that the first damping resistance of the damper will not be large enough for damping the impact force that the wheel suspension will be exposed to when touching the ground after the airborne situation; and, if this is the case, - adjusting the damping resistance from the first damping mode to the at least second damping mode at least before the subsequent impact force impacts the wheel suspension. - the electronic control unit performing a step of identifying if the vehicle is in a first situation during driving of said vehicle which will lead to a subsequent impact force on the at least one wheel suspension which is of a magnitude such that the at least one damper, when in its first damping mode, will reach a position where no further damping can be performed by using the information of the sensing element, and wherein the first situation is a situation where at least one side of the vehicle is airborne, or the complete vehicle is airborne, wherein the step of identifying comprises using the sensing element to identify that the vehicle has become airborne with a certain altitude above the ground which will lead to that the first damping resistance of the damper will not be large enough for damping the impact force that the wheel suspension will be exposed to when touching the ground after the airborne situation; and, if this is the case, - adjusting the damping resistance from the first damping mode to the at least second damping mode at least before the subsequent impact force impacts the wheel suspension.
Control device for a motor vehicle, wherein the control device has a circuit carrier comprising at least one conductor track, wherein electrical and/or electronic components are electrically conductively connected to one another by means of the at least one conductor track, wherein the at least one conductor track has a subregion with which electrical contact can be made, wherein a plug housing is connected to the circuit carrier, wherein at least one contact element receiving chamber for receiving at least one electrical contact element is formed on the plug housing, wherein, when a contact element which stops against one end of a line is moved to its final position in the contact element receiving chamber, the contact element is electrically conductively connected at the subregion with which electrical contact can be made, wherein contact is made with a contact area of the electrical contact element at the subregion with which electrical contact can be made, wherein the circuit carrier is surrounded by a moulding compound, wherein the plug housing has an outer side, characterized in that at least one moulding is formed on the outer side of the plug housing in such a way that the moulding is connected to the cured moulding compound in an interlocking manner.
Wearable device, comprising: a power source; a position sensor electrically connected to the power source, for sensing a position of a wearer of the wearable device and generating a position signal; a signal transceiver electrically connected to the power source, for receiving the position signal, sending the position signal to a monitoring apparatus, and receiving an indication signal from the monitoring apparatus; and wherein a body of the wearable device comprises a first part and a second part, and a relative position of a moveable end of the first part and a moveable end of the second part can switch between a first relative position (20A, 22A) and a second relative position (22B, 22B), and characterized in that the switching of the relative position between the first relative position (20A, 22A) and the second relative position (20B, 22B) can turn the power source on or off, and wherein a movement of the movable ends of the first part and the second part from the first relative position (20A, 22A) to the second relative position (20b, 22B) causes the wearable device to be worn on at least one of neck, wrist, head and ankle of a wearer. a power source; a position sensor electrically connected to the power source, for sensing a position of a wearer of the wearable device and generating a position signal; a signal transceiver electrically connected to the power source, for receiving the position signal, sending the position signal to a monitoring apparatus, and receiving an indication signal from the monitoring apparatus; and wherein a body of the wearable device comprises a first part and a second part, and a relative position of a moveable end of the first part and a moveable end of the second part can switch between a first relative position (20A, 22A) and a second relative position (22B, 22B), and characterized in that the switching of the relative position between the first relative position (20A, 22A) and the second relative position (20B, 22B) can turn the power source on or off, and wherein a movement of the movable ends of the first part and the second part from the first relative position (20A, 22A) to the second relative position (20b, 22B) causes the wearable device to be worn on at least one of neck, wrist, head and ankle of a wearer.
A process for purifying 4,4'-dichlorodiphenyl sulfoxide comprising: (a) providing a suspension comprising particulate 4,4'-dichlorodiphenyl sulfoxide in monochlorobenzene, (b) solid-liquid separation of the suspension to obtain residual moisture containing 4,4'-dichlorodiphenyl sulfoxide, (c) washing the residual moisture containing 4,4'-dichlorodiphenyl sulfoxide with monochlorobenzene, (d) optionally repeating steps (a) to (c). (a) providing a suspension comprising particulate 4,4'-dichlorodiphenyl sulfoxide in monochlorobenzene, (b) solid-liquid separation of the suspension to obtain residual moisture containing 4,4'-dichlorodiphenyl sulfoxide, (c) washing the residual moisture containing 4,4'-dichlorodiphenyl sulfoxide with monochlorobenzene, (d) optionally repeating steps (a) to (c).
A video endoscope with an outer casing tube, wherein a fiber tube for an inner casing tube is accommodated in the outer casing tube, wherein an inner casing tube for an image-forming unit is accommodated in the fiber tube and wherein a heating film surrounding the inner casing tube is provided between the fiber tube and the inner casing tube.
A method comprising: initiating a first boot session for an electronic device; generating a random seed using a random number generator of the electronic device; generating a sealing key based at least in part on the random seed and a secret that is internal to the electronic device and unique to the electronic device; subsequent to generating the sealing key, disabling access to the secret for a remainder of the first boot session and until a second boot session is initiated; calculating code measurements (202 -) of multiple boot stages for the first boot session; generating a signature based at least in part on the sealing key and the code measurements (202 -); signing at least a portion of a data structure using the signature, the data structure including the code measurements (202 -), the random seed, the signature, and the sealing key; and persisting the data structure in the non-volatile memory (302, 304, 306) of the electronic device. initiating a first boot session for an electronic device; generating a random seed using a random number generator of the electronic device; generating a sealing key based at least in part on the random seed and a secret that is internal to the electronic device and unique to the electronic device; subsequent to generating the sealing key, disabling access to the secret for a remainder of the first boot session and until a second boot session is initiated; calculating code measurements (202 -) of multiple boot stages for the first boot session; generating a signature based at least in part on the sealing key and the code measurements (202 -); signing at least a portion of a data structure using the signature, the data structure including the code measurements (202 -), the random seed, the signature, and the sealing key; and persisting the data structure in the non-volatile memory (302, 304, 306) of the electronic device.
A method of operating an ion trap mass analyzer comprising an ion trap for quantification of analytes in a sample, comprising: a. introducing sample ions into the ion trap in a single injection event, the sample ions including first precursor ions having a first mass-to-charge ratio (m/z) and second precursor ions having a second m/z, the first precursor ions being multiply charged; b. concurrently isolating the first precursor ions and the second precursor ions; c. fragmenting the first precursor ions, but not the second precursor ions, to generate first product ions of m/z above and below the second m/z; d. performing a first scan divided into at least two separate scan windows to mass-selectively eject and detect the first product ions and acquire a first mass spectrum of the first product ions, while retaining in the ion trap the second precursor ions, by performing resonance ejections at different q-values in each scan window, while the low-mass cut-off (LMCO) is kept below the m/z of the second precursor ions; e. fragmenting the second precursor ions to generate second product ions; and f. performing a second scan to mass-selectively eject and detect the second product ions and acquire a second mass spectrum of the second product ions. a. introducing sample ions into the ion trap in a single injection event, the sample ions including first precursor ions having a first mass-to-charge ratio (m/z) and second precursor ions having a second m/z, the first precursor ions being multiply charged; b. concurrently isolating the first precursor ions and the second precursor ions; c. fragmenting the first precursor ions, but not the second precursor ions, to generate first product ions of m/z above and below the second m/z; d. performing a first scan divided into at least two separate scan windows to mass-selectively eject and detect the first product ions and acquire a first mass spectrum of the first product ions, while retaining in the ion trap the second precursor ions, by performing resonance ejections at different q-values in each scan window, while the low-mass cut-off (LMCO) is kept below the m/z of the second precursor ions; e. fragmenting the second precursor ions to generate second product ions; and f. performing a second scan to mass-selectively eject and detect the second product ions and acquire a second mass spectrum of the second product ions.
A timepiece with a wireless function, comprising: an antenna; a reception unit that is configured to process a signal from the antenna; a solar panel; a storage battery; a back cover; and a charging coil disposed opposite the back cover; characterized by further comprising: a solar panel support substrate that is configured to support the solar panel and in that the storage battery can be charged from the solar panel and the charging coil; and the antenna is ring-shaped and is disposed along the outside edge of the solar panel support substrate. an antenna; a reception unit that is configured to process a signal from the antenna; a solar panel; a storage battery; a back cover; and a charging coil disposed opposite the back cover; characterized by further comprising: a solar panel support substrate that is configured to support the solar panel and in that the storage battery can be charged from the solar panel and the charging coil; and the antenna is ring-shaped and is disposed along the outside edge of the solar panel support substrate. a solar panel support substrate that is configured to support the solar panel and in that the storage battery can be charged from the solar panel and the charging coil; and the antenna is ring-shaped and is disposed along the outside edge of the solar panel support substrate.
Air filter system for an internal combustion engine, comprising - a housing, - an inlet port disposed on the housing for supplying a fluid to be filtered, in particular air, - an outlet port disposed on the housing for discharging the filtered fluid, in particular an outlet port disposed centrally in the longitudinal direction, - at least one filter element disposed between inlet port and outlet port, - a support tube disposed inside the housing along a housing axis for accommodating a filter element, - a secondary element with a longitudinal axis and two oppositely positioned ends (12, 14), comprising a filter medium disposed around the longitudinal axis, wherein one of the ends is open and the oppositely positioned end is tightly sealed by means of a closed end disc and the end disc features a connecting means provided for interacting with a connecting means of the support tube if mounted as intended, in order to fix the secondary element on the support tube. wherein the support tube is provided as a support of the secondary element, wherein the secondary element and the support tube each feature connecting means (22, 156) complementary to each other, and with which they can be connected to each other on one of their front faces (12, 152), wherein the connecting means comprises, as part of a snap-fit connection, snap-fit hooks at the end disc of the secondary element which hook onto the connecting element on the support tube side for fixing purposes and wherein the end disc features a recess projecting into the interior of the secondary element and the snap-fit hooks project from a bottom of the recess further into the interior of the secondary element, wherein the support tube features at its end, at which the connecting element is disposed, a recess formed in conformity with a recess of the secondary element. - a housing, - an inlet port disposed on the housing for supplying a fluid to be filtered, in particular air, - an outlet port disposed on the housing for discharging the filtered fluid, in particular an outlet port disposed centrally in the longitudinal direction, - at least one filter element disposed between inlet port and outlet port, - a support tube disposed inside the housing along a housing axis for accommodating a filter element, - a secondary element with a longitudinal axis and two oppositely positioned ends (12, 14), comprising a filter medium disposed around the longitudinal axis, wherein one of the ends is open and the oppositely positioned end is tightly sealed by means of a closed end disc and the end disc features a connecting means provided for interacting with a connecting means of the support tube if mounted as intended, in order to fix the secondary element on the support tube.
Adapter (1; 2; 3; 4; 5; 6; 7;) for attaching a support device for a string instrument, in particular for a violin or a viola, comprising: a first component (11; 21; 31; 41; 51; 61; 71), a second component (12; 23; 32; 42; 52; 62; 72), a connection device for the support device; and a connecting device, wherein the first component (11; 21; 31; 41; 51; 61; 71) and/or the second component (12; 23; 32; 42; 52; 62; 72) conmprises a central section with a recess for the tailpiece button of the string instrument, characterized in that the first component (11; 21; 31; 41; 51; 61: 71) and the second component (12; 23; 32; 42; 52; 62; 72) are arranged and connected by the connecting device in such a way that the tailpiece button is received without contact in the recess as a result of the connection of the first component (11; 21; 31; 41; 51; 61: 71) with the second component (12; 23; 32; 42; 52; 62; 72) is received in the recess without contact, and the first component (11; 21; 31; 41; 51; 61; 71) and the second component (12; 23; 32; 42; 52; 62; 72) are configured to be arranged at the bottom and the top of the string instrument. a first component (11; 21; 31; 41; 51; 61; 71), a second component (12; 23; 32; 42; 52; 62; 72), a connection device for the support device; and a connecting device, wherein the first component (11; 21; 31; 41; 51; 61; 71) and/or the second component (12; 23; 32; 42; 52; 62; 72) conmprises a central section with a recess for the tailpiece button of the string instrument, characterized in that the first component (11; 21; 31; 41; 51; 61: 71) and the second component (12; 23; 32; 42; 52; 62; 72) are arranged and connected by the connecting device in such a way that the tailpiece button is received without contact in the recess as a result of the connection of the first component (11; 21; 31; 41; 51; 61: 71) with the second component (12; 23; 32; 42; 52; 62; 72) is received in the recess without contact, and the first component (11; 21; 31; 41; 51; 61; 71) and the second component (12; 23; 32; 42; 52; 62; 72) are configured to be arranged at the bottom and the top of the string instrument.