mhurhangee/ep-ind-claims huggingface dataset:
A computer program product embodied in a tangible medium, for controlling transmission turbine acceleration to manage acceleration of a motor vehicle, including instructions executable by a controller to: - receive data representative of a transmission turbine speed and a current vehicle speed, - select a vehicle acceleration mode by determining at least one of whether a vehicle operator is requesting the vehicle to move forward and whether a low torque condition is present, and - calculate at least one transmission input torque limit based on the selected vehicle acceleration control mode, wherein if the vehicle acceleration mode does not indicate a shift in progress condition and the vehicle acceleration mode does not indicate a low torque condition, calculating the at least one transmission input torque limit includes a feedforward component and includes a feedback component, wherein calculating the at least one transmission input torque limit includes selecting a gain region based on transmission output speed to vehicle speed ratio and transmission torque ratio and adjusting a feedback loop gain based on the selected gain region; and wherein the feedback component includes a proportional term based on the selected gain region. - receive data representative of a transmission turbine speed and a current vehicle speed, - select a vehicle acceleration mode by determining at least one of whether a vehicle operator is requesting the vehicle to move forward and whether a low torque condition is present, and - calculate at least one transmission input torque limit based on the selected vehicle acceleration control mode,
A selection device for the shed-forming device of a weaving machine comprising ▪ an electromagnetic selector with a coil wound around a fixed core and at least two poles (P 1), (P 2),... (P n) connected to this core designed to form at least one magnetic north pole and at least one magnetic south pole, and ▪ a selection element,;,;, with a positionable part which, when the selection element is situated in a cooperating position near the selector, comprises a magnetically influenceable zone situated next to at least two of the poles (P 1), (P 2),... (P n) while the selection element is retained at a holding distance from this zone, in which the selector can be controlled in order to exert a magnetic force with each pole (P 1), (P 2) situated next to the selection element on this zone so as to place or keep the positionable part in a selection position or a non-selection position in accordance with a predetermined weaving pattern, said holding distance being equal to at least half of the length of the positionable part of the selection element, characterized in that said zone extends in the longitudinal direction (d) of the positionable part of the selection element and over a distance that is shorter than the coil length. ▪ an electromagnetic selector with a coil wound around a fixed core and at least two poles (P 1), (P 2),... (P n) connected to this core designed to form at least one magnetic north pole and at least one magnetic south pole, and ▪ a selection element,;,;, with a positionable part which, when the selection element is situated in a cooperating position near the selector, comprises a magnetically influenceable zone situated next to at least two of the poles (P 1), (P 2),... (P n) while the selection element is retained at a holding distance from this zone,
A bicycle trainer, the bicycle trainer comprising: a biased, pivot mounted belt (107, 136) for contact with the rear wheel of a bicycle, such that the belt moves in response to rotation of the wheel and applies predetermined tension; first and second pivot arms (116a, 116b, 142) pivotable about a pinion (122, 134) located at the fulcrum of both pivot arms; a first roller (112b, 132) mounted at one end of both first and second pivot arms and a second roller (112a, 130) mounted at the opposite end of both first and second pivot arms, wherein the fulcrum is positioned between said two ends and the belt is looped around the first and second rollers; characterised by a weight (118, 120) located on the pivot arms; wherein the belt is configured to be applied against the rear wheel to rotate the pivot arms in a first direction about the fulcrum and the weight is located to one side of the fulcrum to rotatably bias the arms in a second, opposite direction. a biased, pivot mounted belt (107, 136) for contact with the rear wheel of a bicycle, such that the belt moves in response to rotation of the wheel and applies predetermined tension; first and second pivot arms (116a, 116b, 142) pivotable about a pinion (122, 134) located at the fulcrum of both pivot arms; a first roller (112b, 132) mounted at one end of both first and second pivot arms and a second roller (112a, 130) mounted at the opposite end of both first and second pivot arms, wherein the fulcrum is positioned between said two ends and the belt is looped around the first and second rollers; characterised by a weight (118, 120) located on the pivot arms;
A location estimation system for use with an autonomous lawn mowing robot, the system comprising: a plurality of synthetic surfaces (200, 205, 210, 215) configured to be positioned with respect to a mowable space in an environment; a radiation source (180, 190, 191, 194, 195) configured to be coupled to a lawn mowing robot; a detector configured to be coupled to the lawn mowing robot and configured to detect radiation reflected by objects in the environment; and a controller configured to controllably direct radiation from the radiation source (180, 190, 191, 194, 195) to scan the environment, and to vary at least one of an output power of the directed radiation and a scan rate of the directed radiation, as a function of detected radiation reflected from one or more of the synthetic surfaces (200, 205, 210,215), whereby the controller is further configured to direct the radiation source (180, 190, 191, 194, 195) to make a first scan of the environment at a first scan rate to detect areas of interest containing the synthetic surfaces and characterized in that the controller is further configured to direct the radiation source to make a second scan of the environment, a limited portion of the second scan in the areas of interest performed at a second scan rate slower than the first scan rate, wherein the controller is configured to vary the scan rate based on the distance to each area of interest, wherein closer areas of interest are scanned at a faster scan rate than further areas of interest. a plurality of synthetic surfaces (200, 205, 210, 215) configured to be positioned with respect to a mowable space in an environment; a radiation source (180, 190, 191, 194, 195) configured to be coupled to a lawn mowing robot; a detector configured to be coupled to the lawn mowing robot and configured to detect radiation reflected by objects in the environment; and a controller configured to controllably direct radiation from the radiation source (180, 190, 191, 194, 195) to scan the environment, and to vary at least one of an output power of the directed radiation and a scan rate of the directed radiation, as a function of detected radiation reflected from one or more of the synthetic surfaces (200, 205, 210,215), whereby the controller is further configured to direct the radiation source (180, 190, 191, 194, 195) to make a first scan of the environment at a first scan rate to detect areas of interest containing the synthetic surfaces and characterized in that the controller is further configured to direct the radiation source to make a second scan of the environment, a limited portion of the second scan in the areas of interest performed at a second scan rate slower than the first scan rate, wherein the controller is configured to vary the scan rate based on the distance to each area of interest, wherein closer areas of interest are scanned at a faster scan rate than further areas of interest.
A thin film transistor, comprising a substrate, a gate electrode, a source electrode, at least three drain electrodes and a semiconductor layer, a gate electrode protection layer located between the gate electrode and the semiconductor layer, and an etch stopping layer located between the semiconductor layer and the source electrode, the drain electrode, wherein the semiconductor layer is a metal-oxide semiconductor layer; characterized in that the thin film transistor comprises a first drain electrode, a second drain electrode and a third drain electrode, wherein the first drain electrode, the second drain electrode and the source electrode are arranged in such a way that the electrodes are taken as three vertex of a isosceles triangle, and the second drain electrode, the third drain electrode and the source electrode are also arranged in the same way; wherein, the source electrode and the drain electrodes are respectively connected with the semiconductor layer by a different via hole for each electrode.
A humanized anti-C1q antibody, or an antigen-binding fragment thereof, wherein the antibody or antigen-binding fragment thereof comprises: a) a heavy chain variable domain comprising an amino acid sequence of SEQ ID NO: 1 and a light chain variable domain comprising an amino acid sequence of SEQ ID NO: 5; b) a heavy chain variable domain comprising an amino acid sequence of SEQ ID NO: 3 and a light chain variable domain comprising an amino acid sequence of SEQ ID NO: 8; c) a heavy chain variable domain comprising an amino acid sequence of SEQ ID NO: 3 and a light chain variable domain comprising an amino acid sequence of SEQ ID NO: 7; or d) a heavy chain variable domain comprising an amino acid sequence of SEQ ID NO: 4 and a light chain variable domain comprising an amino acid sequence of SEQ ID NO: 7. a) a heavy chain variable domain comprising an amino acid sequence of SEQ ID NO: 1 and a light chain variable domain comprising an amino acid sequence of SEQ ID NO: 5; b) a heavy chain variable domain comprising an amino acid sequence of SEQ ID NO: 3 and a light chain variable domain comprising an amino acid sequence of SEQ ID NO: 8; c) a heavy chain variable domain comprising an amino acid sequence of SEQ ID NO: 3 and a light chain variable domain comprising an amino acid sequence of SEQ ID NO: 7; or d) a heavy chain variable domain comprising an amino acid sequence of SEQ ID NO: 4 and a light chain variable domain comprising an amino acid sequence of SEQ ID NO: 7.
A fastener including: a first and a second load receiving portion (36, 46); a strainable portion between the first and second load receiving portions; an elongate portion including a reference datum; a strain portion datum located on the strainable portion; axial displacement of the strain portion datum relative to the reference datum being proportional to a load on the fastener; and a hole from a measuring access end of the fastener towards the reference and strain portion datums to enable a measuring tool to access the reference and strain portion datums to check the load; characterised in that: when the load is zero, the axial distance from the highest point of the reference datum to the highest point of the strain portion datum is less than 1/1000th of an axial distance from the reference datum to a root of the elongate portion; the hole includes a bore having a cross sectional area and a tolerance of no more than H9; and including one or more tool engaging portion(s) to form an engagement to align the tool; the tool engaging portion(s) being configured to engage the tool at at least two locations spaced by an axial length at least equal to the square root of the cross-sectional area. a first and a second load receiving portion (36, 46); a strainable portion between the first and second load receiving portions; an elongate portion including a reference datum; a strain portion datum located on the strainable portion; axial displacement of the strain portion datum relative to the reference datum being proportional to a load on the fastener; and a hole from a measuring access end of the fastener towards the reference and strain portion datums to enable a measuring tool to access the reference and strain portion datums to check the load; characterised in that: when the load is zero, the axial distance from the highest point of the reference datum to the highest point of the strain portion datum is less than 1/1000th of an axial distance from the reference datum to a root of the elongate portion; the hole includes a bore having a cross sectional area and a tolerance of no more than H9; and including one or more tool engaging portion(s) to form an engagement to align the tool; the tool engaging portion(s) being configured to engage the tool at at least two locations spaced by an axial length at least equal to the square root of the cross-sectional area. when the load is zero, the axial distance from the highest point of the reference datum to the highest point of the strain portion datum is less than 1/1000th of an axial distance from the reference datum to a root of the elongate portion; the hole includes a bore having a cross sectional area and a tolerance of no more than H9; and including one or more tool engaging portion(s) to form an engagement to align the tool; the tool engaging portion(s) being configured to engage the tool at at least two locations spaced by an axial length at least equal to the square root of the cross-sectional area.
A method for the manufacture of a projective capacitive touch PCT panel characterised in that the method comprises: a first step of either, onto a transparent substrate, uniformly depositing a layer of transparent conducting material TCM, and then onto the TCM layer printing a printable conductive ink PCI, in selected areas to form one or more coarse conducting border regions, or onto a transparent substrate, printing a PCI in selected areas to form one or more coarse conducting border regions and then uniformly depositing a layer of TCM such that the PCI layer is between the substrate and the TCM layer; and a second step of ablating material in the PCI layer and the TCM layer together to form a plurality of discrete electrical tracks, busbars, in said coarse conducting border region and in the same ablation process ablating a pattern of electrodes into the remainder of the TCM layer. a first step of either, onto a transparent substrate, uniformly depositing a layer of transparent conducting material TCM, and then onto the TCM layer printing a printable conductive ink PCI, in selected areas to form one or more coarse conducting border regions, or onto a transparent substrate, printing a PCI in selected areas to form one or more coarse conducting border regions and then uniformly depositing a layer of TCM such that the PCI layer is between the substrate and the TCM layer; and a second step of ablating material in the PCI layer and the TCM layer together to form a plurality of discrete electrical tracks, busbars, in said coarse conducting border region and in the same ablation process ablating a pattern of electrodes into the remainder of the TCM layer.
Method (Pcd) for transmitting data from an electronic device to an electronic watch, including the following steps: - emitting (Pcd_Em1) a first sequence of light signals with a first light source of the electronic device, each signal having a light-intensity level belonging to a set of at least four light-intensity levels, said sequence corresponding to a code of the data to be transmitted; - emitting (Pcd_Em2) a second sequence of light signals at two intensity levels corresponding to clock phases, simultaneously to the step (Pcd_Em1) of emitting the sequence of light signals corresponding to the data to be transmitted, with a second light source of the electronic device; - detecting (Pcd_Det1) successive light-intensity levels with a first phototransistor of the watch, so as to reconstitute the first sequence of data; - detecting (Pcd_Det2) a succession of the two light-intensity levels with a second phototransistor of the watch, so as to reconstitute the clock, the two sequences of light signals being emitted at two distinct wavelengths; and - decoding (Pcd_Dec) the sequence of data by means of the sequence of clock phases, in order to reconstitute the data. - emitting (Pcd_Em1) a first sequence of light signals with a first light source of the electronic device, each signal having a light-intensity level belonging to a set of at least four light-intensity levels, said sequence corresponding to a code of the data to be transmitted; - emitting (Pcd_Em2) a second sequence of light signals at two intensity levels corresponding to clock phases, simultaneously to the step (Pcd_Em1) of emitting the sequence of light signals corresponding to the data to be transmitted, with a second light source of the electronic device; - detecting (Pcd_Det1) successive light-intensity levels with a first phototransistor of the watch, so as to reconstitute the first sequence of data; - detecting (Pcd_Det2) a succession of the two light-intensity levels with a second phototransistor of the watch, so as to reconstitute the clock, the two sequences of light signals being emitted at two distinct wavelengths; and - decoding (Pcd_Dec) the sequence of data by means of the sequence of clock phases, in order to reconstitute the data.
A method for providing signaling used for position determination in a positioning system, comprising: generating, at a first transmitter, a first range block that includes a first ranging signal; sending, from the first transmitter, the first range block, wherein the first range block is sent in a first predefined slot of a plurality of predefined slots of a first transmit frame, and wherein no positioning data is sent from the first transmitter in the first predefined slot of the first transmit frame when the first range block is sent; generating, at the first transmitter, a first hybrid block that includes a first positioning signal, wherein the first positioning signal includes positioning data that includes data specifying a location of the first transmitter; and sending, from the first transmitter, the first hybrid block in a second transmit frame that is disjoint from the first transmit frame, and characterised in that the positioning data further includes data of pressure and/or temperature in the proximity of the transmitter; and wherein the positioning signal has higher order modulation than the ranging signal. generating, at a first transmitter, a first range block that includes a first ranging signal; sending, from the first transmitter, the first range block, wherein the first range block is sent in a first predefined slot of a plurality of predefined slots of a first transmit frame, and wherein no positioning data is sent from the first transmitter in the first predefined slot of the first transmit frame when the first range block is sent; generating, at the first transmitter, a first hybrid block that includes a first positioning signal, wherein the first positioning signal includes positioning data that includes data specifying a location of the first transmitter; and sending, from the first transmitter, the first hybrid block in a second transmit frame that is disjoint from the first transmit frame, and characterised in that the positioning data further includes data of pressure and/or temperature in the proximity of the transmitter; and wherein the positioning signal has higher order modulation than the ranging signal.
Packaging film (1, 8) consisting of a plurality of interconnected polyolefin layers (2, 6) and at least one inner lacquer layer that directly adheres on one side to one of the polyolefin layers and is provided with a metallisation on the other side, characterised in that the polyolefin layers (2, 6) consist of undrawn polyethylene on both sides of the metallised lacquer layer and in that the lacquer layer that directly adheres to one of the polyolefin layers for the metallisation has a surface of low roughness that is more than halved with respect to the surface of the directly connected polyolefin layer, a further polyolefin layer being connected to the surface of the lacquer layer by means of a polyethylene melt.
A process of producing isobutanol, comprising: A) mixing water, lactate, an enzyme mixture comprising at least one enzyme, at least one cofactor, and at least one coenzyme, to prepare a reaction mixture; B) allowing catalytic conversions of lactate in the reaction mixture for a sufficient amount of time to produce isobutanol; and C) separating the isobutanol from a reactant obtained by the catalytic conversions in B), wherein the conversion of lactate into isobutanol in B) is in association with a NAD + /NADH and/or NADP + /NADPH regenerating system. A) mixing water, lactate, an enzyme mixture comprising at least one enzyme, at least one cofactor, and at least one coenzyme, to prepare a reaction mixture; B) allowing catalytic conversions of lactate in the reaction mixture for a sufficient amount of time to produce isobutanol; and C) separating the isobutanol from a reactant obtained by the catalytic conversions in B),
A method for Uplink Control Information, UCI, transmission applied in a Long Term Evolution-Advanced, LTE-A, system, comprising: selecting, by a user equipment, an uplink component carrier out of its own uplink component carrier set according to one or more predefined selection rules or received carrier selection indication information sent by an evolved Node B, eNB,; and transmitting, by the user equipment, the UCI to the eNB through a Physical Uplink Shared Channel, PUSCH, on the selected uplink component carrier, the method is characterized in that on the condition that a PUSCH is available for the user equipment on the selected uplink component carrier in a current uplink subframe, and that at least one PUSCH is available for the user equipment at the same time on other uplink component carrier(s) of the user equipment, the user equipment transmits the UCI to the eNB through the PUSCH on the selected uplink component carrier and further only transmits uplink data through the at least one PUSCH on the other uplink component carrier(s). selecting, by a user equipment, an uplink component carrier out of its own uplink component carrier set according to one or more predefined selection rules or received carrier selection indication information sent by an evolved Node B, eNB,; and transmitting, by the user equipment, the UCI to the eNB through a Physical Uplink Shared Channel, PUSCH, on the selected uplink component carrier, the method is characterized in that on the condition that a PUSCH is available for the user equipment on the selected uplink component carrier in a current uplink subframe, and that at least one PUSCH is available for the user equipment at the same time on other uplink component carrier(s) of the user equipment, the user equipment transmits the UCI to the eNB through the PUSCH on the selected uplink component carrier and further only transmits uplink data through the at least one PUSCH on the other uplink component carrier(s).
Fluid fitting for a fluid line, having a base body, wherein the base body has at least a first channel entry and at least a second channel entry, wherein the first channel entry and the second channel entry are connected to a flow channel, wherein at least one insert space is formed in the base body, wherein at least one insert is introduced into the insert space, and wherein the flow channel runs at least partially through the insert, wherein the insert has at least a first insert part and at least a second insert part, characterized in that the first insert part and/or the second insert part has/have a convex bulge (13, 14) which projects into the flow channel.