mhurhangee/patent-ind-claim-en huggingface dataset:
A header for an agricultural vehicle , comprising: a frame comprising lateral ends; an automatic lighting system , the automatic lighting system comprising at least one light and at least one sensor ; and an electronic control unit operably connected to the at least one light and the at least one sensor , and the electronic control unit being configured for automatically operating the at least one light upon receiving the signal of the at least one sensor characterized in that the at least one light is connected to the frame and the at least one sensor is connected to the frame and configured for sensing a level of light and providing a signal indicative of the level of light; and in that the automatic lighting system comprises four lights located on the frame , two lights being respectively located at the lateral ends of the frame for illuminating an area behind the frame , and two lights being respectively located inwardly of the lateral ends of the frame for illuminating the frame . a frame comprising lateral ends; an automatic lighting system , the automatic lighting system comprising at least one light and at least one sensor ; and an electronic control unit operably connected to the at least one light and the at least one sensor , and the electronic control unit being configured for automatically operating the at least one light upon receiving the signal of the at least one sensor characterized in that the at least one light is connected to the frame and the at least one sensor is connected to the frame and configured for sensing a level of light and providing a signal indicative of the level of light; and in that the automatic lighting system comprises four lights located on the frame , two lights being respectively located at the lateral ends of the frame for illuminating an area behind the frame , and two lights being respectively located inwardly of the lateral ends of the frame for illuminating the frame .
A system for purifying bioderived 1,4-BDO comprising: a first distillation column receiving a crude bioderived 1,4-BDO mixture and generating a first stream of materials with boiling points lower than 1,4-BDO and a bioderived 1,4-BDO-containing product stream; a second distillation column receiving the bioderived 1,4-BDO-containing product stream at a feed point and generating a first stream of materials with boiling points higher than 1,4-BDO, a second stream of materials with boiling points lower than 1,4-BDO, and a purified bioderived 1,4-BDO product from a side-draw; a wiped-film evaporator receiving the first stream of materials with boiling points higher than 1,4-BDO and generating a distillate, wherein the distillate is fed to the second distillation column. a first distillation column receiving a crude bioderived 1,4-BDO mixture and generating a first stream of materials with boiling points lower than 1,4-BDO and a bioderived 1,4-BDO-containing product stream; a second distillation column receiving the bioderived 1,4-BDO-containing product stream at a feed point and generating a first stream of materials with boiling points higher than 1,4-BDO, a second stream of materials with boiling points lower than 1,4-BDO, and a purified bioderived 1,4-BDO product from a side-draw; a wiped-film evaporator receiving the first stream of materials with boiling points higher than 1,4-BDO and generating a distillate, wherein the distillate is fed to the second distillation column.
A computer-implemented method for configuring a virtual test system for testing vehicle functions of a motor vehicle, comprising the steps of: providing (S1) a data set (DS) comprising first data (D1) of a plurality of input ports of an artifact to be tested and comprising second data (D2) of a plurality of output ports of at least one further artifact to be tested; characterized by : applying (S2) a machine learning algorithm (A1) to the data set (DS), wherein for each of the plurality of input ports of the artifact to be tested, a confidence value (K) is determined for each of the plurality of output ports of the at least one further artifact to be tested; for each of the plurality of input ports of the artifact to be tested, assigning (S3a) the output port of the at least one further artifact to be tested having the highest confidence value (K) depending on a first condition (B1); generating (S3b) a list of output ports having the highest confidence values (K) depending on a second condition (B2), or not assigning (S3c) an output port depending on a third condition (B3) for configuring a connection of the input ports of the artifact to be tested to matching output ports of the at least one further artifact to be tested.
Procedure designed for the verification of the current setting functionality of a device , which has an analog current output designed for a current value corresponding to a measured value or an actuating value of the device, and a current actuator assigned to the current output , said actuator setting the current value at the current output depending on a current target value provided in the device , wherein the current value representing a measured value or an actuating value is located within a range from a lower current limit value to an upper current limit value and wherein, during the normal operation of the device , the current target value is provided according to a measured value or an actuating value to be output via the analog current output , said procedure comprising the following steps, which are performed in the device : A) During normal mode, monitoring in the device to determine whether the current actuator sets a high current value at the current output corresponding to the current target value; B) Provision of a low current target value below the lower current limit value if the result of the step involving monitoring during normal operation is that a high current value corresponding to the current target value cannot be set by the current actuator ; characterized in that the procedure comprises the following step: C) Final verification of the current setting functionality through the provision of a high current target value above the upper current limit value and through monitoring in the device , in the high current mode, whether a high current value corresponding to the high current target value can be set at the current output by the current actuator , wherein, if the device has a functional capacity to set the current, a current target value is provided in the device that corresponds to a measured value or actuating value to be output via the analog current output , and wherein, if the device does not have a functional capacity to set the current, a low current target value below the lower current limit value is then provided in the device . A) During normal mode, monitoring in the device to determine whether the current actuator sets a high current value at the current output corresponding to the current target value; B) Provision of a low current target value below the lower current limit value if the result of the step involving monitoring during normal operation is that a high current value corresponding to the current target value cannot be set by the current actuator ; characterized in that the procedure comprises the following step: C) Final verification of the current setting functionality through the provision of a high current target value above the upper current limit value and through monitoring in the device , in the high current mode, whether a high current value corresponding to the high current target value can be set at the current output by the current actuator ,
A method for performing spectral microanalysis of a specimen, the method including the steps of: a. collecting spectra from pixels spaced about a region of interest on the specimen, wherein each spectrum includes emission counts measured across a range of energies; b. periodically during the collection: condensing the collected spectra by combining the emission counts in adjacent energy intervals within the range of energies and/or condensing the pixels by spatially combining the spectra in adjacent pixels; analyzing the condensed spectra collected thus far to determine the probable components present at the pixels, and outputting the probable components present at the pixels. a. collecting spectra from pixels spaced about a region of interest on the specimen, wherein each spectrum includes emission counts measured across a range of energies; b. periodically during the collection: condensing the collected spectra by combining the emission counts in adjacent energy intervals within the range of energies and/or condensing the pixels by spatially combining the spectra in adjacent pixels; analyzing the condensed spectra collected thus far to determine the probable components present at the pixels, and outputting the probable components present at the pixels. condensing the collected spectra by combining the emission counts in adjacent energy intervals within the range of energies and/or condensing the pixels by spatially combining the spectra in adjacent pixels; analyzing the condensed spectra collected thus far to determine the probable components present at the pixels, and outputting the probable components present at the pixels.
A display apparatus for detecting 3D spatial information, the display apparatus comprising: a display panel comprising a plurality of active subpixels in a display area configured with multiple gaps respectively between at least some active subpixels , the display panel comprising a counter substrate at front and a backplane substrate at back; multiple light sensors substantially aligned with the multiple gaps in the display area; one or more light sources configured to each provide an infrared light signal in a direction toward a field of view beyond the counter substrate ; and an optical layer configured to focus infrared light signals reflected from multiple different regions of an object in the field of view illuminated by infrared light signals to the multiple light sensors , the multiple light sensors being arranged discretely and being configured to detect respective infrared light signals reflected from the multiple different regions of the object for collectively deducing 3D spatial information of the object characterized in that the optical layer is located on a back side of the backplane substrate , and in that the multiple light sensors are arranged on a back side of the optical layer. a display panel comprising a plurality of active subpixels in a display area configured with multiple gaps respectively between at least some active subpixels , the display panel comprising a counter substrate at front and a backplane substrate at back; multiple light sensors substantially aligned with the multiple gaps in the display area; one or more light sources configured to each provide an infrared light signal in a direction toward a field of view beyond the counter substrate ; and an optical layer configured to focus infrared light signals reflected from multiple different regions of an object in the field of view illuminated by infrared light signals to the multiple light sensors , the multiple light sensors being arranged discretely and being configured to detect respective infrared light signals reflected from the multiple different regions of the object for collectively deducing 3D spatial information of the object characterized in that the optical layer is located on a back side of the backplane substrate , and in that the multiple light sensors are arranged on a back side of the optical layer.
An ozone generation device comprising: a casing ; a wall body partitioning a space surrounded by the casing into at least a first chamber and a second chamber ; a first opening and a second opening provided in a part of the casing to communicate an outer side of the casing and the first chamber ; a blower mounted at a position inside the wall body or outside the wall body to communicate the first chamber and the second chamber ; a third opening provided in a part of the casing to communicate the outer side of the casing and the second chamber ; a light source body provided between the blower and the third opening in the second chamber and configured to emit ultraviolet light; and an electrical body provided in a position between the first opening and the second opening in the first chamber and configured to supply electric power for driving the light source body . a casing ; a wall body partitioning a space surrounded by the casing into at least a first chamber and a second chamber ; a first opening and a second opening provided in a part of the casing to communicate an outer side of the casing and the first chamber ; a blower mounted at a position inside the wall body or outside the wall body to communicate the first chamber and the second chamber ; a third opening provided in a part of the casing to communicate the outer side of the casing and the second chamber ; a light source body provided between the blower and the third opening in the second chamber and configured to emit ultraviolet light; and an electrical body provided in a position between the first opening and the second opening in the first chamber and configured to supply electric power for driving the light source body .
Thermoreversible hydrogel of general formula I: HO - {M - Y} n - A - H Formula I wherein: HO- represents a hydroxyl group; M represents a moiety which is represented by a moiety X or moiety Z, such that at least one X moiety and at least one Z moiety are present in the formula I, wherein: - each moiety X represents one of the poloxamers with the formula: -(CH 2 -CH 2 -O) a -(CH 2 -CH(CH 3 )-O) b -(CH 2 -CH 2 -O) a - wherein a is an integer from 20 to 100 and b is an integer from 70 to 85; - each moiety Z represents one of the aliphatic di-urethanes with the formula: - R 1 - OOCNH - R 2 - NHCOO - R 1 -, wherein R 1 represents an aliphatic radical with 2 to 3 carbon atoms and R 2 represents an aliphatic moiety with 2 to 8 carbon atoms, preferably 3 to 6 carbon atoms; each Y represents one of the aliphatic diester moieties with the formula: -OOC - (CH 2 ) y - COO- , wherein y represents an integer between 2 and 10, preferably between 2 and 8; A represents a PEG (polyethylene glycol) moiety having the formula: -(CH 2 -CH 2 -O) w - with a molecular mass of 400 to 3000 g/mole, preferably 1000 to 2500 g/mole, most preferably about 2000 g/mole, wherein w is an integer representing the number of ethylene glycol moieties in the PEG; n represents the degree of polymerization and is an integer from 2 to 12, preferably from 2 to 6. HO- represents a hydroxyl group; M represents a moiety which is represented by a moiety X or moiety Z, such that at least one X moiety and at least one Z moiety are present in the formula I, wherein: - each moiety X represents one of the poloxamers with the formula: -(CH 2 -CH 2 -O) a -(CH 2 -CH(CH 3 )-O) b -(CH 2 -CH 2 -O) a - wherein a is an integer from 20 to 100 and b is an integer from 70 to 85; - each moiety Z represents one of the aliphatic di-urethanes with the formula: - R 1 - OOCNH - R 2 - NHCOO - R 1 -, wherein R 1 represents an aliphatic radical with 2 to 3 carbon atoms and R 2 represents an aliphatic moiety with 2 to 8 carbon atoms, preferably 3 to 6 carbon atoms; - each moiety X represents one of the poloxamers with the formula: -(CH 2 -CH 2 -O) a -(CH 2 -CH(CH 3 )-O) b -(CH 2 -CH 2 -O) a - wherein a is an integer from 20 to 100 and b is an integer from 70 to 85; - each moiety Z represents one of the aliphatic di-urethanes with the formula: - R 1 - OOCNH - R 2 - NHCOO - R 1 -, wherein R 1 represents an aliphatic radical with 2 to 3 carbon atoms and R 2 represents an aliphatic moiety with 2 to 8 carbon atoms, preferably 3 to 6 carbon atoms; each Y represents one of the aliphatic diester moieties with the formula: -OOC - (CH 2 ) y - COO- , wherein y represents an integer between 2 and 10, preferably between 2 and 8; A represents a PEG (polyethylene glycol) moiety having the formula: -(CH 2 -CH 2 -O) w - with a molecular mass of 400 to 3000 g/mole, preferably 1000 to 2500 g/mole, most preferably about 2000 g/mole, wherein w is an integer representing the number of ethylene glycol moieties in the PEG; n represents the degree of polymerization and is an integer from 2 to 12, preferably from 2 to 6.
A universal tester comprising: a host interface slot configured to be connected to a first pluggable host card during an electrical test mode of operation to provide a stressed electrical signal to a host under test; the host interface slot being configured to be connected to a second pluggable host card during an optical test mode of operation, the second pluggable host card including an electrical-optical conversion block to convert a stressed electrical signal to a stressed optical signal that is provided to a host under test; and a stressor generator coupled to a first connector and to the host interface slot , the stressor generator being configured to receive an electrical signal from the first connector and generate the stressed electrical signal that simulates changes that may occur to a signal during transmission and is output to the host interface slot and transmitted to the host during a pass-through mode for the stressor generator , the stressor generator being also configured to receive an electrical signal, generated by a host, from the host interface slot and generate the stressed electrical signal that simulates changes that may occur to a signal during transmission and is output to the host interface slot and transmitted to the host during a loop-back mode for the stressor generator . a host interface slot configured to be connected to a first pluggable host card during an electrical test mode of operation to provide a stressed electrical signal to a host under test; the host interface slot being configured to be connected to a second pluggable host card during an optical test mode of operation, the second pluggable host card including an electrical-optical conversion block to convert a stressed electrical signal to a stressed optical signal that is provided to a host under test; and a stressor generator coupled to a first connector and to the host interface slot , the stressor generator being configured to receive an electrical signal from the first connector and generate the stressed electrical signal that simulates changes that may occur to a signal during transmission and is output to the host interface slot and transmitted to the host during a pass-through mode for the stressor generator , the stressor generator being also configured to receive an electrical signal, generated by a host, from the host interface slot and generate the stressor generator being configured to receive an electrical signal from the first connector and generate the stressed electrical signal that simulates changes that may occur to a signal during transmission and is output to the host interface slot and transmitted to the host during a pass-through mode for the stressor generator , the stressor generator being also configured to receive an electrical signal, generated by a host, from the host interface slot and generate the stressed electrical signal that simulates changes that may occur to a signal during transmission and is output to the host interface slot and transmitted to the host during a loop-back mode for the stressor generator .
An article of wear wherein the article of wear is formed of at least one material comprising iron oxide colloidal nanocrystals arranged within chains, wherein the chains of nanocrystals are embedded within the material used to form the article of wear , wherein the chains of nanocrystals display a color that is determined by a strength of a magnetic field applied to the chains of nanocrystals, wherein the color is maintained when the magnetic field is removed, wherein the material is a yarn, thread, fabric, leather, or foam.
Actuated machine comprising: a main frame ; a machine shaft mounted on the main frame by means of a bearing module ; a gearless torque motor coupled to the machine shaft for driving a rotation of the machine shaft ; a torque arm coupled to the gearless torque motor ; and a catching structure, wherein the gearless torque motor is coupled to the machine shaft such that the gearless torque motor is capable of following a translational movement of the machine shaft , wherein the torque arm is coupled to the gearless torque motor for inhibiting a rotational motion of the gearless torque motor , relative to the main frame , about a central axis of the gearless torque motor, and wherein the catching structure is arranged underneath the gearless torque motor for catching and holding the gearless torque motor in case of a failure causing the gearless torque motor's weight to be no longer carried by the machine shaft . a main frame ; a machine shaft mounted on the main frame by means of a bearing module ; a gearless torque motor coupled to the machine shaft for driving a rotation of the machine shaft ; a torque arm coupled to the gearless torque motor ; and a catching structure, wherein the gearless torque motor is coupled to the machine shaft such that the gearless torque motor is capable of following a translational movement of the machine shaft , wherein the torque arm is coupled to the gearless torque motor for inhibiting a rotational motion of the gearless torque motor , relative to the main frame , about a central axis of the gearless torque motor, and wherein the catching structure is arranged underneath the gearless torque motor for catching and holding the gearless torque motor in case of a failure causing the gearless torque motor's weight to be no longer carried by the machine shaft .
An emission treatment system for treatment of an exhaust stream from an engine, the exhaust stream comprising NO x and particulate matter, the emission treatment system comprising: a diesel oxidation catalyst comprising a first platinum group metal zone followed by a second platinum group metal zone, the second zone containing a different platinum group metal loading than the first zone; a catalyzed soot filter disposed downstream from the diesel oxidation catalyst, the catalyzed soot filter comprising an oxidation catalyst composition on the filter, the catalyzed soot filter effective to optimize the ratio of NO to NO 2 exiting the filter; and a NO x reducing catalyst located downstream from the catalyzed soot filter, disposed downstream of the engine. a diesel oxidation catalyst comprising a first platinum group metal zone followed by a second platinum group metal zone, the second zone containing a different platinum group metal loading than the first zone; a catalyzed soot filter disposed downstream from the diesel oxidation catalyst, the catalyzed soot filter comprising an oxidation catalyst composition on the filter, the catalyzed soot filter effective to optimize the ratio of NO to NO 2 exiting the filter; and a NO x reducing catalyst located downstream from the catalyzed soot filter, disposed downstream of the engine.