mhurhangee/ep-ind-claims huggingface dataset:
Transmission structure for an, in particular, serial/parallel hybrid vehicle having an internal combustion engine, a first, in particular generator-type, electric machine, and a second, in particular motor-type, electric machine, wherein a first electric machine shaft (W EM1) which is assigned to the first electric machine can be driven via a first gearwheel set by a driveshaft (W VKM) which can be driven by the internal combustion engine, and wherein a traction drive gearwheel (Z D) of a differential gear of the vehicle can be driven via a second gearwheel set by a second electric machine shaft (W EM2) which is assigned to the second electric machine, wherein the first gearwheel set has a ring gear (Z H) with an internal toothing arrangement (Z HI) and a spur gear (Z EM1) which engages in the internal toothing arrangement (Z HI) of the ring gear (Z H), wherein the transmission structure has an intermediate shaft (W ZW), and wherein a gearwheel (Z EM2) which is connected effectively in terms of rotation to the second electric machine shaft (W EM2) engages in a first intermediate shaft gearwheel (Z ZW1) of the intermediate shaft (W ZM), characterized in that a second intermediate shaft gearwheel (Z ZW2) of the intermediate shaft (W ZW) engages in the traction drive gearwheel (Z D) of the differential gear; in that the transmission structure has a parking lock, wherein the intermediate shaft (W ZW) can be locked by means of the parking lock; in that the intermediate shaft (W ZW) has a parking lock wheel; and in that the parking lock wheel is arranged between the first intermediate shaft gearwheel (Z ZW1) and the second intermediate shaft gearwheel (Z ZW2). characterized in that a second intermediate shaft gearwheel (Z ZW2) of the intermediate shaft (W ZW) engages in the traction drive gearwheel (Z D) of the differential gear; in that the transmission structure has a parking lock, wherein the intermediate shaft (W ZW) can be locked by means of the parking lock; in that the intermediate shaft (W ZW) has a parking lock wheel; and in that the parking lock wheel is arranged between the first intermediate shaft gearwheel (Z ZW1) and the second intermediate shaft gearwheel (Z ZW2).
A method of transmitting control information to a plurality of stations (STA1-STA5) in a Very High Throughput, VHT, IEEE 802.11 Wireless Local Area Network, WLAN, system, the method comprising: generating, by an access point, a first control sequence including a first VHT control signal (330, 440, 1050, 2630, 2730) to be transmitted omni-directionally without spatial division multiple access, SDMA, precoding and containing common information about multi-user multiple input multiple output, MU-MIMO, transmission of fields to be subsequently transmitted; generating, by the access point, a second control sequence including a second VHT control signal (340, 470, 1060, 2640, 2740) to be transmitted directionally with SDMA precoding and containing station-specific information for allowing each of the plurality of stations (STA1-STA5) to decode its data (360, 480); and transmitting (S710, S720), by the access point to the plurality of stations (STA1-STA5), a frame (300, 2610, 2700) including the first control sequence, the second control sequence, and the data (360, 480) to which SDMA precoding is applied. generating, by an access point, a first control sequence including a first VHT control signal (330, 440, 1050, 2630, 2730) to be transmitted omni-directionally without spatial division multiple access, SDMA, precoding and containing common information about multi-user multiple input multiple output, MU-MIMO, transmission of fields to be subsequently transmitted; generating, by the access point, a second control sequence including a second VHT control signal (340, 470, 1060, 2640, 2740) to be transmitted directionally with SDMA precoding and containing station-specific information for allowing each of the plurality of stations (STA1-STA5) to decode its data (360, 480); and transmitting (S710, S720), by the access point to the plurality of stations (STA1-STA5), a frame (300, 2610, 2700) including the first control sequence, the second control sequence, and the data (360, 480) to which SDMA precoding is applied.
Method for machining a plate-type workpiece comprising the following steps: a) preparing a plate-type workpiece which is surrounded at least in part with a protective film b) delivering a protective film separating device (4, 6, 7) up to the workpiece in the region of the surface thereof which is covered with a protective film nearby a narrow side (9, 10) of the workpiece in the delivery direction perpendicular to the surface; c) moving the workpiece and the protective film separating device relative to one another along a feed direction wherein the protective film is then weakened and/or separated along a path characterised in that after weakening and/or separating the protective film a part of the narrow side of the workpiece is machined away so that material is removed in the removal direction perpendicular to the feed direction and perpendicular to the delivery direction down to a predetermined narrow surface, wherein the predetermined narrow surface is coated with an adhesive tape. a) preparing a plate-type workpiece which is surrounded at least in part with a protective film b) delivering a protective film separating device (4, 6, 7) up to the workpiece in the region of the surface thereof which is covered with a protective film nearby a narrow side (9, 10) of the workpiece in the delivery direction perpendicular to the surface; c) moving the workpiece and the protective film separating device relative to one another along a feed direction wherein the protective film is then weakened and/or separated along a path
A system for heating a biological material in a vessel, comprising: a heating device configured to transmit energy to the vessel, the heating device comprising an assembly base, and a main body comprising a thawing chamber for receiving the vessel, the main body being rotatably supported at the assembly base via a main hinge, such that the main body can controllably partially rotate about the main hinge relative to the base; two temperature sensors localized in two sides of the main body; two heating elements located on opposite sides of the main body, and a temperature controller, wherein the temperature controller is configured to activate the two heating elements separately based on a temperature measured by each temperature sensor; two cooling devices for assisting temperature regulation located on opposite sides of the man body adjacent the heating elements at an outer side with respect to the heating elements, wherein each cooling device comprises a heat sink and a fan; a motor for moving the main body arranged at the assembly base; and a processor configured to: receive an input associated with a target temperature; and transmit a signal to controllably partially rotate the main body of the heating device relative to the base for a time period, wherein the time period is determined based on at least the target temperature. a heating device configured to transmit energy to the vessel, the heating device comprising an assembly base, and a main body comprising a thawing chamber for receiving the vessel, the main body being rotatably supported at the assembly base via a main hinge, such that the main body can controllably partially rotate about the main hinge relative to the base; an assembly base, and a main body comprising a thawing chamber for receiving the vessel, the main body being rotatably supported at the assembly base via a main hinge, such that the main body can controllably partially rotate about the main hinge relative to the base; two temperature sensors localized in two sides of the main body; two heating elements located on opposite sides of the main body, and a temperature controller, wherein the temperature controller is configured to activate the two heating elements separately based on a temperature measured by each temperature sensor; two cooling devices for assisting temperature regulation located on opposite sides of the man body adjacent the heating elements at an outer side with respect to the heating elements, wherein each cooling device comprises a heat sink and a fan; a motor for moving the main body arranged at the assembly base; and a processor configured to: receive an input associated with a target temperature; and transmit a signal to controllably partially rotate the main body of the heating device relative to the base for a time period, wherein the time period is determined based on at least the target temperature. receive an input associated with a target temperature; and transmit a signal to controllably partially rotate the main body of the heating device relative to the base for a time period, wherein the time period is determined based on at least the target temperature.
A method for detecting properties of sample tubes, comprising steps of: a. receiving a series of images of a tray from at least one camera; b. extracting a plurality of image patches from each image; c. automatically determining, using a processor, from a first subset of the plurality image patches, each patch corresponding to one of a plurality of slots in the tray, whether each of a plurality of slots contains a sample tube; d. for those plurality of slots that contain a sample tube, automatically determining, using the processor, from a second subset of the plurality image patches, each patch corresponding to the top of the sample tube, whether each sample tube has a cap; and characterized in that the method comprises steps of e. for those tubes that do not have a cap, automatically determining, using the processor, from the second subset of the plurality image patches whether each sample tube has a tube-top cup or is a plain tube, and further comprising the step of training the processor to perform the determining steps using a random forest technique and a plurality of training images. a. receiving a series of images of a tray from at least one camera; b. extracting a plurality of image patches from each image; c. automatically determining, using a processor, from a first subset of the plurality image patches, each patch corresponding to one of a plurality of slots in the tray, whether each of a plurality of slots contains a sample tube; d. for those plurality of slots that contain a sample tube, automatically determining, using the processor, from a second subset of the plurality image patches, each patch corresponding to the top of the sample tube, whether each sample tube has a cap; and characterized in that the method comprises steps of e. for those tubes that do not have a cap, automatically determining, using the processor, from the second subset of the plurality image patches whether each sample tube has a tube-top cup or is a plain tube, and
An anode active material comprising a porous silicon oxide-carbon material composite, the porous silicon oxide-carbon material composite comprising: a porous silicon oxide including pores; and a line-type carbon material coated on the surface and in the pores of the porous silicon oxide, wherein the line-type carbon material is carbon nanofibers, carbon nanotubes, or a mixture thereof, an average diameter of the pores of the porous silicon oxide is in a range of 10 nm to 1,000 nm when the average diameter is measured on the surface of the porous silicon oxide, an average diameter of the line-type carbon material is in a range of 5 nm to 200 nm, and an average length thereof is in a range of 100 nm to 5 μm. a porous silicon oxide including pores; and a line-type carbon material coated on the surface and in the pores of the porous silicon oxide, wherein the line-type carbon material is carbon nanofibers, carbon nanotubes, or a mixture thereof, an average diameter of the pores of the porous silicon oxide is in a range of 10 nm to 1,000 nm when the average diameter is measured on the surface of the porous silicon oxide, an average diameter of the line-type carbon material is in a range of 5 nm to 200 nm, and an average length thereof is in a range of 100 nm to 5 μm.
Method of separating a stripwound hose which comprises interlocking windings (11, 12, 13, 14) of a metal strip, wherein the stripwound hose is welded in a predetermined axial region and is then severed in a radial plane within the region, characterised in that prior to the welding the stripwound hose is compressed axially in the predetermined region, so that in the region the windings (11, 12, 13, 14) come to rest one against another, with the result that a joint running helically around the circumference becomes a constant minimum width, and the welding is carried out along a predetermined number of windings (11, 12) helically along the joint in the region.
A deposition mechanism configured for producing a three-dimensional object on a build platform using a resin in a layer-by-layer technique, with a build area defined adjacent to the build platform, the deposition mechanism comprising: a carriage configured for movement through the build area; a supply vat mounted on the carriage and configured to contain the resin in flowable form; a roller configured to be in communication with the resin within the supply vat and rotatably mounted on the carriage; and an exposure device mounted on the carriage and configured for emitting electromagnetic waves, characterized in that: the exposure device is configured for emitting the electromagnetic waves to a first exposure site located adjacent to the roller within the supply vat, to at least partially solidify a layer of the resin within the supply vat, the roller is configured for rotating to carry the layer of the resin to an application site within the build area for application to produce the three-dimensional object as the carriage passes through the build area, and the exposure device is further configured for emitting the electromagnetic waves to a second exposure site within the build area to apply the layer to produce the three-dimensional object. a carriage configured for movement through the build area; a supply vat mounted on the carriage and configured to contain the resin in flowable form; a roller configured to be in communication with the resin within the supply vat and rotatably mounted on the carriage; and an exposure device mounted on the carriage and configured for emitting electromagnetic waves, characterized in that: the exposure device is configured for emitting the electromagnetic waves to a first exposure site located adjacent to the roller within the supply vat, to at least partially solidify a layer of the resin within the supply vat, the roller is configured for rotating to carry the layer of the resin to an application site within the build area for application to produce the three-dimensional object as the carriage passes through the build area, and the exposure device is further configured for emitting the electromagnetic waves to a second exposure site within the build area to apply the layer to produce the three-dimensional object. the exposure device is configured for emitting the electromagnetic waves to a first exposure site located adjacent to the roller within the supply vat, to at least partially solidify a layer of the resin within the supply vat, the roller is configured for rotating to carry the layer of the resin to an application site within the build area for application to produce the three-dimensional object as the carriage passes through the build area, and the exposure device is further configured for emitting the electromagnetic waves to a second exposure site within the build area to apply the layer to produce the three-dimensional object.
A compound of Formula: wherein AA 1 is selected from, and AA 2 is selected from R 1 is selected from R 2a is selected from R 2b is H or Me; R 3 and R 4 are independently selected from H and (C1-C6)alkyl; R 5 and R 6 are independently H, methyl, ethyl, propyl, cyclopropyl, or cyclobutyl; or R 5 and R 6 together with the N atom to which they are attached form a 4-6-membered heterocyclyl; R 7 is selected from H, (C1-C6)alkyl, cycloalkyl, and aryl; R 8 and R 9 are independently selected from H, (C1-C6)alkyl, cycloalkyl, and aryl; or R 8 and R 9 together with the N atom to which they are attached form a 4-6-membered heterocyclyl; n is 1, 2, or 3; X is selected from and * denotes the point of attachment of X to R 1. AA 1 is selected from, and AA 2 is selected from R 1 is selected from R 2a is selected from R 2b is H or Me; R 3 and R 4 are independently selected from H and (C1-C6)alkyl; R 5 and R 6 are independently H, methyl, ethyl, propyl, cyclopropyl, or cyclobutyl; or R 5 and R 6 together with the N atom to which they are attached form a 4-6-membered heterocyclyl; R 7 is selected from H, (C1-C6)alkyl, cycloalkyl, and aryl; R 8 and R 9 are independently selected from H, (C1-C6)alkyl, cycloalkyl, and aryl; or R 8 and R 9 together with the N atom to which they are attached form a 4-6-membered heterocyclyl; n is 1, 2, or 3; X is selected from and * denotes the point of attachment of X to R 1.
A liquid crystal display apparatus comprising: a plurality of common electrode lines (146, 746, 748), a plurality of data lines, a plurality of divided common electrodes and a plurality of pixel electrodes arranged in that order on a first substrate; wherein the common electrode lines (146, 746, 748) are configured to control the divided common electrodes, and wherein the plurality of divided common electrodes are spaced apart from each other, thereby forming an opening portion therebetween, characterized in that in the opening portions extending along the extension direction of the data lines, respectively, one of the common electrode lines (146, 746, 748) and one of the data lines overlapping with each other are positioned, the common electrode lines (146, 746, 748) being positioned under the data lines, wherein the width of the common electrode lines (146, 746, 748) is larger than the width of the data lines. a plurality of common electrode lines (146, 746, 748), a plurality of data lines, a plurality of divided common electrodes and a plurality of pixel electrodes arranged in that order on a first substrate; wherein the common electrode lines (146, 746, 748) are configured to control the divided common electrodes, and wherein the plurality of divided common electrodes are spaced apart from each other, thereby forming an opening portion therebetween, characterized in that in the opening portions extending along the extension direction of the data lines, respectively, one of the common electrode lines (146, 746, 748) and one of the data lines overlapping with each other are positioned, the common electrode lines (146, 746, 748) being positioned under the data lines, wherein the width of the common electrode lines (146, 746, 748) is larger than the width of the data lines.
A medical device for wound closure, the medical device comprising: an elongate body having a distal portion and a proximal portion,; an inner member moveably positioned on the elongate body; an outer member moveably positioned on the elongate body; and a foam structure attached to a distal portion of the elongate body, wherein a plurality of barbs extend from a surface of the elongate body, wherein the plurality of barbs are oriented so as to enable the outer member to move distally along the elongate body while limiting proximal movement of the outer member. an elongate body having a distal portion and a proximal portion,; an inner member moveably positioned on the elongate body; an outer member moveably positioned on the elongate body; and a foam structure attached to a distal portion of the elongate body,
A device (400, 500), comprising: a multi-mode low noise amplifier, LNA, (401, 501) having a first amplifier stage and having a single-carrier mode and a carrier aggregation, CA, mode; and a second amplifier stage coupled to the first amplifier stage, the second amplifier stage having a plurality of amplification paths (451, 461, 471) configured to amplify a plurality of carrier frequencies of a carrier-aggregated communication channel and provide a corresponding plurality of output signals at an LNA output when the first amplifier stage is in the CA mode, the first amplifier stage configured to bypass the second amplifier stage to provide another output signal at the LNA output when the first amplifier stage is in the single-carrier mode. a multi-mode low noise amplifier, LNA, (401, 501) having a first amplifier stage and having a single-carrier mode and a carrier aggregation, CA, mode; and a second amplifier stage coupled to the first amplifier stage, the second amplifier stage having a plurality of amplification paths (451, 461, 471) configured to amplify a plurality of carrier frequencies of a carrier-aggregated communication channel and provide a corresponding plurality of output signals at an LNA output when the first amplifier stage is in the CA mode, the first amplifier stage configured to bypass the second amplifier stage to provide another output signal at the LNA output when the first amplifier stage is in the single-carrier mode.
Electrical connection for an electrical component in an exhaust gas system of an internal combustion engine, wherein the exhaust gas system has a metallic jacket, through which an electrical conductor is passed through an insulating layer in electrically insulated fashion by means of a bushing with a geometric mid-axis, and wherein the electrical conductor has at least one outer connecting section which is circular in cross section and has a contact area for connection to a connection piece of a feedline or an inner or outer thread which is coaxial to the mid-axis of the bushing, wherein at least the bushing or the electrical conductor are configured such that they can absorb torques of up to 8 Nm (newton meter) acting at least on the connecting section or the inner or outer thread in the circumferential direction thereof, wherein the electrical conductor has securing elements (21, 22; 31, 32; 41, 42; 51; 62, 71; 81, 82) for securing against rotation in the region of the bushing and the electrical conductor has an outer cross section deviating from the circular shape in the region of the bushing and the bushing, at least in terms of its shape or inner surface structure, acts as mating piece to the corresponding region of the electrical conductor and is electrically insulated therefrom by a ceramic insulating layer.