mhurhangee/ep-ind-claims huggingface dataset:
A transparent OLED substrate (11, 12, 13, 14, 15), comprising: a base substrate; a first electrode layer located on the base substrate, the first electrode layer comprising a plurality of electrode groups arranged along a first direction, each of the electrode groups comprising at least one first electrode (1111a,1111b) extending along a second direction perpendicular to the first direction; a light emitting structure layer located on the first electrode layer, the light emitting structure layer comprising light emitting structures of n colors, n≥1; the first electrode comprising at least one light emitting structure; and a second electrode located on the light emitting structure layer, wherein, when the at least one first electrode and the second electrode has a driving voltage therebetween, the transparent OLED substrate performs a display function, when the at least one first electrode and the second electrode has no driving voltage therebetween, the transparent OLED substrate performs a light transmission function, characterized in that the ratio of the size in the second direction to the size in the first direction of the first electrode is greater than 10:1. a base substrate; a first electrode layer located on the base substrate, the first electrode layer comprising a plurality of electrode groups arranged along a first direction, each of the electrode groups comprising at least one first electrode (1111a,1111b) extending along a second direction perpendicular to the first direction; a light emitting structure layer located on the first electrode layer, the light emitting structure layer comprising light emitting structures of n colors, n≥1; the first electrode comprising at least one light emitting structure; and the light emitting structure layer comprising light emitting structures of n colors, n≥1; the first electrode comprising at least one light emitting structure; and a second electrode located on the light emitting structure layer, wherein, when the at least one first electrode and the second electrode has a driving voltage therebetween, the transparent OLED substrate performs a display function, when the at least one first electrode and the second electrode has no driving voltage therebetween, the transparent OLED substrate performs a light transmission function, characterized in that the ratio of the size in the second direction to the size in the first direction of the first electrode is greater than 10:1.
A composite structure for an electrochemical cell electrode comprising: as one of its active materials, a plurality of particles comprising silicon, each particle having a silicon-comprising particle core and a plurality of silicon-comprising pillars extending therefrom, wherein the silicon-comprising pillars are electrochemically active.
A rotational angle determining device, comprising: - a resolver that is configured to receive an alternating current excitation signal and to output an alternating current resolver signal induced by the excitation signal and having an amplitude that changes corresponding to a rotational angle of a rotor; - a resolver signal converting unit (202, 203) that is configured to periodically sample the resolver signal at a timing at which the excitation signal reaches a peak or trough value in a case in which no phase shift has occurred between the excitation signal and a timer signal, based on the timer signal to which initial phase alignment is performed with respect to the excitation signal, and performs A/D conversion of a voltage value of the sampled resolver signal; and - a rotational angle calculating unit that is configured to calculate a rotational angle of the rotor based on a first converted value obtained by the A/D conversion performed by the resolver signal converting unit, wherein the rotational angle determining device further comprises: - an excitation signal converting unit that is configured to periodically sample the excitation signal at a predetermined timing based on the timer signal, and performs A/D conversion of a voltage value of the sampled excitation signal; and - a phase shift detecting unit that is configured to detect a presence or absence of a phase shift based on a change of a second converted value obtained by the A/D conversion performed by the excitation signal converting unit. - a resolver that is configured to receive an alternating current excitation signal and to output an alternating current resolver signal induced by the excitation signal and having an amplitude that changes corresponding to a rotational angle of a rotor; - a resolver signal converting unit (202, 203) that is configured to periodically sample the resolver signal at a timing at which the excitation signal reaches a peak or trough value in a case in which no phase shift has occurred between the excitation signal and a timer signal, based on the timer signal to which initial phase alignment is performed with respect to the excitation signal, and performs A/D conversion of a voltage value of the sampled resolver signal; and - a rotational angle calculating unit that is configured to calculate a rotational angle of the rotor based on a first converted value obtained by the A/D conversion performed by the resolver signal converting unit, - an excitation signal converting unit that is configured to periodically sample the excitation signal at a predetermined timing based on the timer signal, and performs A/D conversion of a voltage value of the sampled excitation signal; and - a phase shift detecting unit that is configured to detect a presence or absence of a phase shift based on a change of a second converted value obtained by the A/D conversion performed by the excitation signal converting unit.
A method of controlling a vehicle, comprising: detecting an object proximate to a vehicle with at least one sensor (30, 36, 38); and analyzing data from the at least one sensor (30, 36, 38) with a controller to determine if the object detected is a pedestrian proximate to the vehicle; determining a maximum separation distance from the pedestrian while maintaining the vehicle within a current lane of travel; characterized by determining a maximum safe speed for the vehicle to pass the pedestrian based upon the maximum separation distance available; and performing a pedestrian safety zone maintenance maneuver including: steering the vehicle to the maximum separation distance and braking the vehicle to the maximum safe speed while the vehicle is passing the pedestrian, wherein the amount that the speed is reduced by braking is dependent on the determined maximum separation distance available to the vehicle in such a way that for lesser maximum separation distances, a greater reduction in vehicle speed will be implemented. detecting an object proximate to a vehicle with at least one sensor (30, 36, 38); and analyzing data from the at least one sensor (30, 36, 38) with a controller to determine if the object detected is a pedestrian proximate to the vehicle; determining a maximum separation distance from the pedestrian while maintaining the vehicle within a current lane of travel;
Apparatus for wheel suspension; having at least one subframe which can be fixed to a vehicle body at least at two fastening points; and having at least one transverse leaf spring for the suspension of at least two wheels which are arranged on opposite vehicle sides; characterized in that the apparatus comprises a single-piece component which consists of the subframe and the transverse leaf spring, the subframe and the transverse leaf spring being connected integrally to one another at precisely two connecting points.
A set of nucleic acid primers or hybridization probes being specific for a potentially methylated region of marker genes comprising the combination HIC1, such as comprising SEQ ID NO: 1207; KL, such as comprising SEQ ID NO: 1163; ESR1, such as comprising SEQ ID NO: 1353; or comprising a set of at least 50% of the markers of HIC1, KL and ESR1, with at least marker KL; wherein the set comprises not more than 20000 probes or primer pairs.
Extractor hood comprising a unit, the unit comprising at least one first component and at least one second component, the first component comprising at least one deformation portion comprising at least an upper portion, a lower portion and a side portion, and the second component comprising at least one deformation portion, the deformation portion of the first component surrounding the deformation portion of the second component at least in portions in order to connect the two components (2, 3), characterised in that at least one free space is provided between the upper portion and/or the lower portion of the deformation portion of the first component and the deformation portion of the second component, and in that at least one stiffening device is provided, which is capable of and designed to fill the free space between the deformation portions (4, 5) at least in portions in order to produce a form-fitting and/or force-fitting connection between the two components (2,3).
A dual polarized antenna (10; 40; 70) comprising: a plurality of folded baluns (24, 26; 48; 72, 74); first and second active elements (12, 14; 44, 46; 86, 88) each comprising a conductive member, the respective conductive members being spaced apart from each other; the first active element (12; 44; 86) having a direction of polarization that is different than a direction of polarization of the second active element (14; 46; 88), circuitry coupled to the first and second active elements (12, 14), the circuitry being operable to generate electro-magnetic energy from the first and second active elements (12, 14; 44, 46; 86, 88) along a direction of propagation; characterized in that each spaced apart conductive member (12; 42; 86) comprises an excitation portion (26; 64; 82) of a folded balun (24, 26; 48; 72, 74) and a ground portion (24; 52; 84) of another folded balun (24, 26; 48; 72, 74); and at least one parasitic element (18; 56; 78) disposed a predetermined distance from the first and second active elements (12, 14; 44, 46; 86, 88) and normal to the direction of propagation; wherein the at least one parasitic element is configured to match the impedance of the first and second active elements to free space. a plurality of folded baluns (24, 26; 48; 72, 74); first and second active elements (12, 14; 44, 46; 86, 88) each comprising a conductive member, the respective conductive members being spaced apart from each other; the first active element (12; 44; 86) having a direction of polarization that is different than a direction of polarization of the second active element (14; 46; 88), circuitry coupled to the first and second active elements (12, 14), the circuitry being operable to generate electro-magnetic energy from the first and second active elements (12, 14; 44, 46; 86, 88) along a direction of propagation; characterized in that each spaced apart conductive member (12; 42; 86) comprises an excitation portion (26; 64; 82) of a folded balun (24, 26; 48; 72, 74) and a ground portion (24; 52; 84) of another folded balun (24, 26; 48; 72, 74); and at least one parasitic element (18; 56; 78) disposed a predetermined distance from the first and second active elements (12, 14; 44, 46; 86, 88) and normal to the direction of propagation; wherein the at least one parasitic element is configured to match the impedance of the first and second active elements to free space.
An agricultural row unit adapted to be moved in a forward direction of movement of an agricultural planter over soil to clear agricultural residue, the agricultural row unit comprising: an attachment frame; a drive clearing-disk coupled to the attachment frame for rotation about a first axis; and a driven clearing-disk coupled to the attachment frame for rotation about a second axis offset from the first axis; wherein the drive clearing-disk is drivingly coupled to the driven clearing-disk to rotate the driven clearing-disk about the second axis, a motor coupled to the drive clearing-disk and configured to rotate the drive clearing-disk about the first axis; and a controller configured to adjust a speed of rotation of the motor in response to at least one of a speed of forward movement of the agricultural row unit over the soil, a height of the drive clearing-disk relative to a surface of the soil, a height of the driven clearing-disk relative to a surface of the soil, an amount of crop residue in an agricultural row, and a downforce pressure on a portion of the agricultural row unit, further comprising a gear assembly drivingly coupled between the drive clearing-disk and the driven clearing-disk; wherein when the drive clearing-disk rotates at a first speed the gear assembly is configured to rotate the driven clearing-disk at a second speed greater than the first speed. an attachment frame; a drive clearing-disk coupled to the attachment frame for rotation about a first axis; and a driven clearing-disk coupled to the attachment frame for rotation about a second axis offset from the first axis; wherein the drive clearing-disk is drivingly coupled to the driven clearing-disk to rotate the driven clearing-disk about the second axis, a motor coupled to the drive clearing-disk and configured to rotate the drive clearing-disk about the first axis; and a controller configured to adjust a speed of rotation of the motor in response to at least one of a speed of forward movement of the agricultural row unit over the soil, a height of the drive clearing-disk relative to a surface of the soil, a height of the driven clearing-disk relative to a surface of the soil, an amount of crop residue in an agricultural row, and a downforce pressure on a portion of the agricultural row unit, further comprising a gear assembly drivingly coupled between the drive clearing-disk and the driven clearing-disk; wherein when the drive clearing-disk rotates at a first speed the gear assembly is configured to rotate the driven clearing-disk at a second speed greater than the first speed.
A method of static graphics rendering in a mobile device, comprising: receiving panning increments for panning a previously rendered frame to a panned frame; determining a rendering region based on the panning increments; expanding the rendering region to provide an expanded region; clipping, to the expanded region, at least one of a candidate polygon, candidate line segment and candidate polyline to obtain one or more clipped portions of the at least one of the candidate polygon, candidate line segment and candidate polyline contained within the expanded region; and rendering the one or more clipped portions of the candidate polygon, candidate line segment and candidate polyline, and copying a portion of the previously rendered frame, a portion of which overlaps with and is rendered over a portion of the expanded region, to provide the panned frame. receiving panning increments for panning a previously rendered frame to a panned frame; determining a rendering region based on the panning increments; expanding the rendering region to provide an expanded region; clipping, to the expanded region, at least one of a candidate polygon, candidate line segment and candidate polyline to obtain one or more clipped portions of the at least one of the candidate polygon, candidate line segment and candidate polyline contained within the expanded region; and rendering the one or more clipped portions of the candidate polygon, candidate line segment and candidate polyline, and copying a portion of the previously rendered frame, a portion of which overlaps with and is rendered over a portion of the expanded region, to provide the panned frame.
A method of processing data with a graphics processing unit (48, 60) having a plurality of shader processors (76, 152, 200, 252), the method comprising: receiving execution orders for a first shader processor (76A, 152A, 200A, 252A) of the plurality of shader processors, wherein the execution orders comprise a plurality of kernel (56-58, 142-146, 184-188) designations and a plurality of workgroup designations of workgroups included in the designated kernels to operate on input data associated with the received execution orders; assigning workgroups of kernels identified in the plurality of workgroup designations and the plurality of kernel designations to the first shader processor of the plurality of shader processors; storing the input data to a local memory of the first shader processor; and executing, by the first shader processor of the plurality of shader processors, the workgroups of kernels identified in the plurality of workgroup designations and the plurality of kernel designations to process the input data including retaining the input data in the local memory during execution of the workgroups of kernels. receiving execution orders for a first shader processor (76A, 152A, 200A, 252A) of the plurality of shader processors, wherein the execution orders comprise a plurality of kernel (56-58, 142-146, 184-188) designations and a plurality of workgroup designations of workgroups included in the designated kernels to operate on input data associated with the received execution orders; assigning workgroups of kernels identified in the plurality of workgroup designations and the plurality of kernel designations to the first shader processor of the plurality of shader processors; storing the input data to a local memory of the first shader processor; and executing, by the first shader processor of the plurality of shader processors, the workgroups of kernels identified in the plurality of workgroup designations and the plurality of kernel designations to process the input data including retaining the input data in the local memory during execution of the workgroups of kernels.
A device for fastening panels at a distance from a support structure, said device comprising at least one rod of which a first end includes means for fastening to said structure, a link shaped so to be clipped onto a profiled element with a substantially C-shaped section provided with two coplanar edges, commonly called furring strip, said link including a tubular part forming a channel inside which the rod may slide in order to allow a displacement of said link along the rod, and locking/unlocking means capable of taking at least two positions, a so-called unlocked position in which the link is capable of sliding along the rod and a locked position in which the link is blocked on the rod, the locking/unlocking means comprising gripping means integral with a rod at the free end of which two jaws elastically deformable extend and capable of cooperating with the tubular part of the link, characterized in that the locking/unlocking means comprise at least one blade extending between the two jaws, said blade being capable of being inserted into first transverse slots made in the tubular part of the link and in second transverse slots made in the rod, the first and second slots (13, 5) extending to the right of each other when the rod is introduced into the tubular part of the link.
Method for frequency interleaving of symbols intended to be assigned to carriers of a multicarrier transmission device comprising an N FFT orthogonal function multiplexing and modulation module (Mx), consisting in interleaving a block of K symbols according to a determined interleaving law I(k), characterized in that the interleaving law I(k) is obtained by means of the relationships: I p, q 0 k = − k − p ⋅ k K I k = I p, q j k = K − p + k + q ⋅ p ⋅ − k − p ⋅ I p, q j − 1 k K K k = {0,...., K-1}, and the block interleaving law is variable in time by varying in time the number of iterations j, one of the two parameters p and q or K for a given transmission mode of the multicarrier transmission device.
A vehicle security system comprising: one or more controller area network, CAN, buses; one or more electronic control units, ECUs, connected to the one or more CAN buses; a vehicle security module, VSM, connected to the one or more CAN buses; and an on board diagnostics, OBD, connector connected to the vehicle security module; and wherein: the vehicle security module is configured to discriminate between authorized and unauthorized signals that are input to the on board diagnostics connector; the vehicle security module has a default security policy; and the default security policy specifies the types of messages that are allowed to flow to and/or from the vehicle to a device plugged into the OBD connector; the VSM is configured to verify a token in the device plugged into the OBD connector and to modify the default security policy according to a change specified in the verified token to allow the VSM to classify a signal as an authorized signal when the vehicle security module would otherwise classify the signal as an unauthorized signal; authorized signals are forwarded by the VSM to the one or more CAN busses; and unauthorized signals are refused entry, by the VSM, to the one or more CAN busses. one or more controller area network, CAN, buses; one or more electronic control units, ECUs, connected to the one or more CAN buses; a vehicle security module, VSM, connected to the one or more CAN buses; and an on board diagnostics, OBD, connector connected to the vehicle security module; and the vehicle security module is configured to discriminate between authorized and unauthorized signals that are input to the on board diagnostics connector; the vehicle security module has a default security policy; and the default security policy specifies the types of messages that are allowed to flow to and/or from the vehicle to a device plugged into the OBD connector; the VSM is configured to verify a token in the device plugged into the OBD connector and to modify the default security policy according to a change specified in the verified token to allow the VSM to classify a signal as an authorized signal when the vehicle security module would otherwise classify the signal as an unauthorized signal; authorized signals are forwarded by the VSM to the one or more CAN busses; and unauthorized signals are refused entry, by the VSM, to the one or more CAN busses.