mhurhangee/ep-ind-claims huggingface dataset:
A resistance-change memory comprising: a memory cell which comprises first and second electrodes, and a variable resistance layer disposed between the first electrode and the second electrode; and a control circuit which applies a voltage between the first electrode and the second electrode to perform writing, erasing, and reading, wherein during the writing, the control circuit applies a first voltage pulse between the first electrode and the second electrode, and then applies a second voltage pulse different in polarity from the first voltage pulse after applying the first voltage pulse; and characterised in that the control circuit applies a fourth voltage pulse between the first electrode and the second electrode during the reading, the fourth voltage pulse having the same polarity as the first voltage pulse, at least one of the pulse amplitude and the pulse width of the fourth voltage pulse being smaller than that of the first voltage pulse; and wherein during the reading, the control circuit applies the second voltage pulse between the first electrode and the second electrode after applying the fourth voltage pulse. a memory cell which comprises first and second electrodes, and a variable resistance layer disposed between the first electrode and the second electrode; and a control circuit which applies a voltage between the first electrode and the second electrode to perform writing, erasing, and reading, wherein during the writing, the control circuit applies a first voltage pulse between the first electrode and the second electrode, and then applies a second voltage pulse different in polarity from the first voltage pulse after applying the first voltage pulse; and characterised in that the control circuit applies a fourth voltage pulse between the first electrode and the second electrode during the reading, the fourth voltage pulse having the same polarity as the first voltage pulse, at least one of the pulse amplitude and the pulse width of the fourth voltage pulse being smaller than that of the first voltage pulse; and wherein during the reading, the control circuit applies the second voltage pulse between the first electrode and the second electrode after applying the fourth voltage pulse.
A fixture, particularly for a motor vehicle, comprising a support, wherein the support comprises a pivoting region encompassing a pivotable exit flap and a fixed region, wherein the fixture is designed such that the exit flap remains connected to the fixed region when opened by means of a hinge, wherein the fixed region is connected to the exit flap via a flexible reinforcement, and wherein a separating zone is provided along the hinge between the pivoting region and the fixed region in which the reinforcement is not in flat connection with the support, characterized in that the reinforcement is folded, particularly in a Z shape, in the region of the separating zone; wherein a separating means is introduced into at least one fold of the particularly Z-shaped folding; and wherein the separating means has a surface structure which is preferably impermeable to the melt of the support material.
A method for providing audio location perception to a first endpoint in a multipoint videoconference, the first endpoint comprising a plurality of loudspeakers (211a-n) spatially arranged with respect to a screen (218a-n), the method being performed by a multipoint control unit and comprising the steps of: receiving compressed audio and video image signals from a plurality of endpoints (210a-n); decoding the compressed audio and video image signals; assessing from the decoded audio signals which of the plurality of endpoints (210a-n) comprises a speaking endpoint; generating a continuous presence video layout (450, 460) for the first endpoint, the layout (450, 460) positioning video images from one or more of the plurality of endpoints (210a-n) at different positions in the layout (450, 460); processing one or more of the decoded audio signals in a plurality of channels (330a-k), each channel (330a-k) corresponding to one of the plurality of loudspeakers (211a-n) at the first endpoint, to generate a perception that the audio signals emanate from a position in the layout (450, 460) corresponding to a video image from the speaking endpoint; encoding the video layout (450, 460) and the processed audio signals; and transmitting the encoded signals to the first endpoint; wherein one of the plurality of endpoints (210a-n) delivers stereophonic audio to the multipoint control unit, the stereophonic audio comprising a left input stream and right input stream; and wherein each stream is duplicated and transferred to each one of the channels (330a-k), each channel (330a-k) processing differently the left duplicated stream and the right duplicated stream. receiving compressed audio and video image signals from a plurality of endpoints (210a-n); decoding the compressed audio and video image signals; assessing from the decoded audio signals which of the plurality of endpoints (210a-n) comprises a speaking endpoint; generating a continuous presence video layout (450, 460) for the first endpoint, the layout (450, 460) positioning video images from one or more of the plurality of endpoints (210a-n) at different positions in the layout (450, 460); processing one or more of the decoded audio signals in a plurality of channels (330a-k), each channel (330a-k) corresponding to one of the plurality of loudspeakers (211a-n) at the first endpoint, to generate a perception that the audio signals emanate from a position in the layout (450, 460) corresponding to a video image from the speaking endpoint; encoding the video layout (450, 460) and the processed audio signals; and transmitting the encoded signals to the first endpoint; wherein one of the plurality of endpoints (210a-n) delivers stereophonic audio to the multipoint control unit, the stereophonic audio comprising a left input stream and right input stream; and wherein each stream is duplicated and transferred to each one of the channels (330a-k), each channel (330a-k) processing differently the left duplicated stream and the right duplicated stream.
-4-Amino- N -(1-(4-chlorophenyl)-3-hydroxypropyl)-1-(7 H -pyrrolo[2,3- d]-pyrimidin-4-yl)piperidine-4-carboxamide, (i.e. Compound), in crystalline form, in the form of Form B wherein said Form B has an X-ray powder diffraction pattern with at least three specific peaks at 2-theta = 12.3°, 15.0° and 19.2° wherein said values may be plus or minus 0.2° 2-theta.
A method of transmitting, by a terminal, a demodulation reference signal, DMRS, for an uplink data in a wireless communication system, the method comprising: receiving, from a base station, a radio resource control, RRC, signaling including control information representing that transform precoding for an uplink is enabled; generating a low peak to average power ratio, PAPR, sequence based on a length-6 sequence; generating a sequence used for the DMRS based on the low PAPR sequence; and transmitting, to the base station, the DMRS based on the sequence used for the DMRS, wherein the length-6 sequence has an 8-phase shift keying, PSK, symbol as each element of the sequence, wherein the length-6 sequence is determined by e jφ ( i) π /8, wherein the i is an index of elements of the length-6 sequence, and wherein a value of the φ ( i) comprises (-7 3 1 5 -1 3), (-7 -5 -1 -7 -5 5), (-7 1 -3 3 7 5) and (-7 1-315 1). receiving, from a base station, a radio resource control, RRC, signaling including control information representing that transform precoding for an uplink is enabled; generating a low peak to average power ratio, PAPR, sequence based on a length-6 sequence; generating a sequence used for the DMRS based on the low PAPR sequence; and transmitting, to the base station, the DMRS based on the sequence used for the DMRS, wherein the length-6 sequence has an 8-phase shift keying, PSK, symbol as each element of the sequence, wherein the length-6 sequence is determined by e jφ ( i) π /8, wherein the i is an index of elements of the length-6 sequence, and wherein a value of the φ ( i) comprises (-7 3 1 5 -1 3), (-7 -5 -1 -7 -5 5), (-7 1 -3 3 7 5) and (-7 1-315 1).
Window raising device for a motor vehicle, which is designed for raising and lowering a window pane of the motor vehicle, wherein the window raising device has a driver (12, 14) and a current-conducting line which can be arranged at a first end (21.1) in a fixed position with respect to a vehicle body and is arranged at a second end (21.2) in a fixed position with respect to the driver (12, 14), which is movable relative to the vehicle body, for raising and lowering the window pane of the window raising device, characterized in that the line is secured at its first end (21.1) to a current-supplied and -controlled window raising drive of the window raising device for driving the driver (12, 14), wherein the window pane has a connection by means of which the window pane can be supplied with current, and wherein the driver has a plug, which is connectable to the connection, for producing contact between the line and the window pane.
A method for deodorizing sediment in-situ using a deodorant being a calcium nitrate solution; the method comprises the following steps: (a) determining acid volatile sulfides content and total organic carbon content in sediments under water; (b) ploughing treatment river-bed or sea-bed by injection tines of a bioremediator; and at the same time, injecting the calcium nitrate solution into the sediments; and then navigating the bioremediator forward to collapse trench sides of ploughed furrows and encapsulate the calcium nitrate solution within the sediments for a subsequent biological treatment process the method being characterised in that: the calcium nitrate solution has a calcium nitrate mass percentage of 14.32% - 52.49%, and step (a) includes, after determining the AVS content and TOC content, calculating a dosage of the calcium nitrate solution required according to the following formula: amount in kg of calcium nitrate to be injected per m 3 of wet sludge = 5.86 * 112 165 * AVS + 3 35 * TOC wherein AVS and TOC are both in kg per wet sludge. (a) determining acid volatile sulfides content and total organic carbon content in sediments under water; (b) ploughing treatment river-bed or sea-bed by injection tines of a bioremediator; and at the same time, injecting the calcium nitrate solution into the sediments; and then navigating the bioremediator forward to collapse trench sides of ploughed furrows and encapsulate the calcium nitrate solution within the sediments for a subsequent biological treatment process the method being characterised in that: the calcium nitrate solution has a calcium nitrate mass percentage of 14.32% - 52.49%, and step (a) includes, after determining the AVS content and TOC content, calculating a dosage of the calcium nitrate solution required according to the following formula: amount in kg of calcium nitrate to be injected per m 3 of wet sludge = 5.86 * 112 165 * AVS + 3 35 * TOC wherein AVS and TOC are both in kg per wet sludge. the calcium nitrate solution has a calcium nitrate mass percentage of 14.32% - 52.49%, and step (a) includes, after determining the AVS content and TOC content, calculating a dosage of the calcium nitrate solution required according to the following formula: amount in kg of calcium nitrate to be injected per m 3 of wet sludge = 5.86 * 112 165 * AVS + 3 35 * TOC
A glue supply device for a labeling unit (150, 250, 400) with a glue printer (119, 219, 419), comprising: a storage tank (110, 210) for glue, in particular, cold glue having a low viscosity; a supply line (116, 216) for supplying glue from the storage tank to the glue printer; and a hydropneumatic reservoir (117, 217) for the glue, wherein the hydropneumatic reservoir is arranged at the supply line upstream of the glue printer; characterized by a continuously delivering glue pump (111, 211, 311, 411) which is configured to deliver glue from the storage tank into the supply line, and an auxiliary tank, wherein the auxiliary tank is mechanically connected with the glue pump (111, 311, 411) such that, when the storage tank is being exchanged, the auxiliary tank that is otherwise arranged within the storage tank can be driven together with the glue pump out of the storage tank and glue is withdrawn from the auxiliary tank by means of the glue pump. a storage tank (110, 210) for glue, in particular, cold glue having a low viscosity; a supply line (116, 216) for supplying glue from the storage tank to the glue printer; and a hydropneumatic reservoir (117, 217) for the glue, wherein the hydropneumatic reservoir is arranged at the supply line upstream of the glue printer; characterized by a continuously delivering glue pump (111, 211, 311, 411) which is configured to deliver glue from the storage tank into the supply line, and an auxiliary tank, wherein the auxiliary tank is mechanically connected with the glue pump (111, 311, 411) such that, when the storage tank is being exchanged, the auxiliary tank that is otherwise arranged within the storage tank can be driven together with the glue pump out of the storage tank and glue is withdrawn from the auxiliary tank by means of the glue pump.
Complete knee prosthetic comprising a femoral part and a meniscus, said femoral part being in two parts, namely a first part comprising two condyles (7, 8) separated by an intercondyle clear interval and a said trochlean second part in which said intercondyle clear interval does not extend, each condyle having a respective outer surface having a shape complementary to a respective upper surface of said meniscus to obtain a congruence of these surfaces on at least a part of the normal flexion range, said flexion being defined by the angle α defined between the tibia axis and the femur axis, an angle α = 0 corresponding to the case where the leg is straight and the two axis are parallel and a flexion angle α being positive for a knee flexion in the usual direction of knee flexion during which said tibia rotates relative to said femur for a maximum flexion of about 120° to 130°, while a flexion angle α being negative for a knee flexion during which said tibia rotates relative to said femur in the opposite direction, characterized by two cavities (14, 15) implemented only in said trochlea part, the relative positionings, the dimensions and the shapes of the cavities and of an anterior upper edge of the meniscus being such that said femoral part can flex in rotation up to an inferior negative limit angle and when said anterior upper edge of said meniscus comes in abutment in said cavities (14, 15), said femoral part is blocked in rotation of flexion for the negative angles beyond said inferior negative limit angle, said condyles being made of two circular segments, in a sagittal section, that is an intermediary circular segment of greater radius and an extremity circular segment of smaller radius, said intermediary circular segment extending itself along an angle of about 80° to 90°, said extremity circular segment extending itself along an angle of about 30° to 40°, each cavity being formed in said trochlean part at a level corresponding to an angle of 10 to 30° along the circular segment corresponding to the projection of the trochlea part in the sagittal plane and which comes after said intermediary circular segment on the side opposite said extremity circular segment.
A variable-geometry exhaust turbine, comprising: a nozzle mount including a first surface and a second surface; a nozzle support including a first end portion and a second end portion, the first end portion being joined to the first surface of the nozzle mount; a nozzle plate including a first surface and a second surface, the first surface being joined to the second end portion of the nozzle support and supported so as to face the nozzle mount and to be spaced from the nozzle mount, and the second surface facing an exhaust gas channel through which exhaust gas flows; and at least one nozzle vane supported rotatably between the nozzle mount and the nozzle plate, characterized in that the nozzle support includes a mechanism for tilting along a radial direction so as to absorb a relative displacement in the radial direction between the nozzle mount and the nozzle plate due to thermal expansion. a nozzle mount including a first surface and a second surface; a nozzle support including a first end portion and a second end portion, the first end portion being joined to the first surface of the nozzle mount; a nozzle plate including a first surface and a second surface, the first surface being joined to the second end portion of the nozzle support and supported so as to face the nozzle mount and to be spaced from the nozzle mount, and the second surface facing an exhaust gas channel through which exhaust gas flows; and at least one nozzle vane supported rotatably between the nozzle mount and the nozzle plate, characterized in that the nozzle support includes a mechanism for tilting along a radial direction so as to absorb a relative displacement in the radial direction between the nozzle mount and the nozzle plate due to thermal expansion.
Electronically controlled suspension system for a bicycle, comprising at least one spring element (3, 4), which is arranged between a first part of the bicycle and a second part (14, 15) of the bicycle, which parts are movably connected to one another, at least one characteristic variable of the spring element being changeable, and at least one actuator, which acts on the spring element (3, 4) in order to change the at least one characteristic variable, and an electronic module with which a control signal for the at least one actuator can be generated, and at least one control element (2, 63, 66, 5), with which the control signal generated by the electronic module can be influenced, wherein the control element (2, 63) contains at least one micromechanical acceleration sensor, characterized in that the electronic module allows at least one manual operating state in which the control signal generated by the electronic module is influenced by the user and the electronic module allows at least one automatic operating state in which the control signal generated by the electronic module is generated on the basis of at least one driving parameter, wherein the control element and/or the electronic module have at least one first operating state and at least one second operating state, wherein in the second operating state the number of executable functions is reduced and the energy consumption is reduced in comparison with the first operating state.
A method of fabricating an oxidation-resistant carbon fiber, the method comprising: providing at least one carbon fiber, the at least one carbon fiber including graphite and a surface that has an initial interfacial bonding strength capacity with respect to bonding with boron nitride; modifying the surface to reduce the initial interfacial bonding strength capacity by heat treating the carbon fiber at a temperature of 1550-1650° C and ordering microstructural stacking faults in a graphitic microstructure of the at least one carbon fiber; and depositing a layer of boron nitride on the modified surface, wherein the layer of boron nitride is in contact with the modified surface of the carbon fiber, characterised in that the layer of boron nitride has a thickness of 50-150 nm. providing at least one carbon fiber, the at least one carbon fiber including graphite and a surface that has an initial interfacial bonding strength capacity with respect to bonding with boron nitride; modifying the surface to reduce the initial interfacial bonding strength capacity by heat treating the carbon fiber at a temperature of 1550-1650° C and ordering microstructural stacking faults in a graphitic microstructure of the at least one carbon fiber; and depositing a layer of boron nitride on the modified surface, wherein the layer of boron nitride is in contact with the modified surface of the carbon fiber, characterised in that the layer of boron nitride has a thickness of 50-150 nm.
A compound comprising a modified oligonucleotide consisting of 16 to 30 linked nucleosides and having a nucleobase sequence comprising a portion which consists of at least 16 contiguous nucleobases complementary to an equal-length portion of nucleotides 7267-7457 of SEQ ID NO: 2.
An optical motion tracking system for determining the movement of an object at least partly located in a volume of difficult access and/or at least partly located in an electromagnetic field, said system comprising: - a borescope for imaging a pattern on the object or a surface part of the object in a camera, said pattern or surface part located adjacent to a distal end of the borescope and said camera attached to a proximal end of said borescope, and - image processing means for calculating the movement of said pattern or surface part relative to the distal end of the borescope based on a plurality of frames / images captured by the camera. - a borescope for imaging a pattern on the object or a surface part of the object in a camera, said pattern or surface part located adjacent to a distal end of the borescope and said camera attached to a proximal end of said borescope, and - image processing means for calculating the movement of said pattern or surface part relative to the distal end of the borescope based on a plurality of frames / images captured by the camera.
A cell recovery and storage system comprising: an agitator device comprising a first connector; a sterile, single-use soaking tub comprising a second connector connected to a bottom portion of the soaking tub, the second connector having a passageway (1204, 1206) configured for receiving suspension solution through the second connector, and the second connector being configured for rotatably coupling with the first connector of the agitator device; a filter bag configured to be at least partially disposed in an interior of the soaking tub; a fluid intake system configured for providing suspension solution into the soaking tub, the fluid intake system comprising inlet tubing connected to the soaking tub via the passageway of the second connector; a fluid output system configured for removing from the soaking tub suspension solution including resuspended cells recovered from articles, the fluid output system comprising outlet tubing connected to the soaking tub via the passageway of the second connector; and at least one cell collection device connected to the fluid output system for collecting cells resuspended in suspension solution. an agitator device comprising a first connector; a sterile, single-use soaking tub comprising a second connector connected to a bottom portion of the soaking tub, the second connector having a passageway (1204, 1206) configured for receiving suspension solution through the second connector, and the second connector being configured for rotatably coupling with the first connector of the agitator device; the second connector having a passageway (1204, 1206) configured for receiving suspension solution through the second connector, and the second connector being configured for rotatably coupling with the first connector of the agitator device; a filter bag configured to be at least partially disposed in an interior of the soaking tub; a fluid intake system configured for providing suspension solution into the soaking tub, the fluid intake system comprising inlet tubing connected to the soaking tub via the passageway of the second connector; a fluid output system configured for removing from the soaking tub suspension solution including resuspended cells recovered from articles, the fluid output system comprising outlet tubing connected to the soaking tub via the passageway of the second connector; and at least one cell collection device connected to the fluid output system for collecting cells resuspended in suspension solution.