mhurhangee/ep-ind-claims huggingface dataset:
A vehicle speed control system comprising - a vehicle accelerator mechanism manually moveable between a plurality of positions, - detection means configured to detect the position of the vehicle accelerator mechanism and to generate an output signal indicative of the position of the vehicle accelerator mechanism, - a vehicle speed controller configured to establish a speed of the vehicle as a function of said detected position of said manually controllable vehicle accelerator mechanism, and to use said output signal as an input speed control signal, said vehicle speed controller is further configured to be operably activated by a user and to operate any one of a clutch unit, propulsion unit and service brake, wherein, when said vehicle speed controller is operably activated by the user to use said output signal as an input speed control signal, said vehicle speed controller is further configured to be operated by the user to control the speed of the vehicle by an operation of any one of the clutch unit, the propulsion unit and the service brake, allowing the user to manually control the speed of the vehicle as a function of the position of the vehicle accelerator mechanism, characterized in that the vehicle speed controller comprises data reflecting vehicle speed rating as a function of the position of the vehicle accelerator mechanism, wherein said vehicle speed controller is configured to operate any one of the clutch unit, the propulsion unit and the service brake based on said data to control the speed of the vehicle and wherein the vehicle speed controller comprises a user interface for receiving user-specific data and configured to permit the user to set a user-specific vehicle speed rating as a function of the position of the vehicle accelerator mechanism. - a vehicle accelerator mechanism manually moveable between a plurality of positions, - detection means configured to detect the position of the vehicle accelerator mechanism and to generate an output signal indicative of the position of the vehicle accelerator mechanism, - a vehicle speed controller configured to establish a speed of the vehicle as a function of said detected position of said manually controllable vehicle accelerator mechanism, and to use said output signal as an input speed control signal,
A method of hybridizing nucleic acid sequences in situ in a sample on a slide without a denaturation step and on an automated system comprising: - providing a first nucleic acid sequence, - providing a second nucleic acid sequence, - providing a hybridization composition comprising an effective amount of at least one polar aprotic solvent, and - combining the first and the second nucleic acid sequence and the hybridization composition on the automated system for at least a time period sufficient to hybridize the first and second nucleic acid sequences, wherein the polar aprotic solvent is not dimethyl sulfoxide (DMSO). - providing a first nucleic acid sequence, - providing a second nucleic acid sequence, - providing a hybridization composition comprising an effective amount of at least one polar aprotic solvent, and - combining the first and the second nucleic acid sequence and the hybridization composition on the automated system for at least a time period sufficient to hybridize the first and second nucleic acid sequences,
Panel of a box body of a commercial vehicle, in particular a truck, a trailer and/or semitrailer, - having an outer covering layer, an inner covering layer, a core layer which is arranged between the outer covering layer and the inner covering layer, a load, a coupling device and a line which connects the load to the coupling device and which is provided between the outer covering layer and the inner covering layer, - wherein the coupling device has a head end with a coupling element which is accessible from the outer side for producing a connection to the line, and - wherein the coupling device has a foot end, characterised in that - the foot end and the head end are assigned to different covering layers (7, 8), and - in that the foot end, the line and the load are preassembled on the same covering layer. - having an outer covering layer, an inner covering layer, a core layer which is arranged between the outer covering layer and the inner covering layer, a load, a coupling device and a line which connects the load to the coupling device and which is provided between the outer covering layer and the inner covering layer, - wherein the coupling device has a head end with a coupling element which is accessible from the outer side for producing a connection to the line, and - wherein the coupling device has a foot end, characterised in that - the foot end and the head end are assigned to different covering layers (7, 8), and - in that the foot end, the line and the load are preassembled on the same covering layer.
A stone slab with a light source, comprising a transparent composite plate; wherein the composite plate comprises a stone panel, a light guide plate, and a honeycomb plate that are laminated from top to bottom; a water-molecule-activated protective film is provided on an upper surface and a lower surface of the light guide plate respectively, the water-molecule-activated protective film on the upper surface of the light guide plate is bonded to the stone panel by using an adhesive, and the water-molecule-activated protective film on the lower surface of the light guide plate is bonded to the honeycomb plate by using an adhesive; the water-molecule-activated protective film comprises a PET film and a water-molecule-activated adhesive, and the PET film is bonded to the light guide plate by using the water-molecule-activated adhesive.
A sensor for ultrasonically measuring a portion of a structure having a temperature significantly above room-temperature, said sensor comprising: a high-temperature portion for contact with said structure, said high-temperature portion comprising at least: at least one transducer for converting a first signal to an ultrasonic transmit signal, and for converting an ultrasonic reflected signal to a second signal; a low-temperature portion comprising at least: at least one digital sensor interface, DSI, to which said transducer is electrically connected, said DSI being configured to transmit said first electrical signal and receive said second electrical signal, and to generate an A-scan signal based on said first and second electrical signals; a wireless interface for transmitting a digital signal based directly or indirectly on at least said A-scan signal; and a battery for powering said DSI and said wireless interface; characterized in that the sensor further comprises an elongated member for connecting the low and high-temperature portions of the sensor, said elongated member being sufficiently rigid and long to hold said low-temperature portion a sufficient distance away from said high-temperature portion such that said low-temperature portion is subjected to significantly less heat from said structure compared to said high-temperature portion. a high-temperature portion for contact with said structure, said high-temperature portion comprising at least: at least one transducer for converting a first signal to an ultrasonic transmit signal, and for converting an ultrasonic reflected signal to a second signal; a low-temperature portion comprising at least: at least one digital sensor interface, DSI, to which said transducer is electrically connected, said DSI being configured to transmit said first electrical signal and receive said second electrical signal, and to generate an A-scan signal based on said first and second electrical signals; a wireless interface for transmitting a digital signal based directly or indirectly on at least said A-scan signal; and a battery for powering said DSI and said wireless interface;
A method of handling an in-device co-existence interference in a user equipment, UE, the method comprising: detecting, by the UE, an in-device co-existence interference between a long term evolution, LTE, module and an industrial, scientific and medical radio band, ISM, module in the UE; receiving, by the UE from a base station, a configuration message indicating whether the base station supports transmitting a report of an in-device co-existence interference message at the UE; identifying one or more subframes and corresponding uplink/downlink hybrid automatic repeat request, HARQ, processes based on the detected in-device co-existence interference; setting the in-device co-existence indication message including pattern information associated with the LTE module, based on the configuration message and the identified one or more subframes and the corresponding uplink/downlink HARQ processes for resolving in-device co-existence interference between the LTE module and the ISM module; and transmitting, by the UE to the base station, the in-device co-existence indication message; wherein the pattern information indicates the one or more subframes and the corresponding HARQ processes. detecting, by the UE, an in-device co-existence interference between a long term evolution, LTE, module and an industrial, scientific and medical radio band, ISM, module in the UE; receiving, by the UE from a base station, a configuration message indicating whether the base station supports transmitting a report of an in-device co-existence interference message at the UE; identifying one or more subframes and corresponding uplink/downlink hybrid automatic repeat request, HARQ, processes based on the detected in-device co-existence interference; setting the in-device co-existence indication message including pattern information associated with the LTE module, based on the configuration message and the identified one or more subframes and the corresponding uplink/downlink HARQ processes for resolving in-device co-existence interference between the LTE module and the ISM module; and transmitting, by the UE to the base station, the in-device co-existence indication message; wherein the pattern information indicates the one or more subframes and the corresponding HARQ processes.
An inverter heat-dissipation device, comprising a centrifugal fan, a first heat radiator, a second heat radiator and an air channel, wherein a first air outlet is arranged at one end of the air channel and a second air outlet is arranged at the other end of the air channel; the first heat radiator is arranged inside the air channel and is in communication with the first air outlet; the second heat radiator is arranged inside the air channel and is in communication with the second air outlet; the centrifugal fan is arranged inside the air channel and is arranged between the first heat radiator and the second heat radiator; an air inlet matching the centrifugal fan in size is arranged on the air channel; a first opening is arranged on the air channel, wherein a first heating element of an inverter comprising the inverter heat-dissipation device is installed onto the first heat radiator through the first opening; and a second opening is arranged on the air channel, wherein a second heating element of the inverter comprising the inverter heat-dissipation device is installed onto the second heat radiator through the second opening.
A double-stranded oligonucleotide, which comprises a sense strand and an antisense strand, each nucleotide in the sense strand and antisense strand being a modified nucleotide, wherein the sense strand comprises a nucleotide sequence 1, and the antisense strand comprises a nucleotide sequence 2; the nucleotide sequence 1 and the nucleotide sequence 2 are both 19 nucleotides in length and are at least partly reverse complementary to form a double-stranded region; the nucleotide sequence 2 is at least partly reverse complementary to a first nucleotide sequence segment, which refers to a segment of nucleotide sequence in the target mRNA; in the direction from 5' terminal to 3' terminal, the nucleotides at positions 7, 8 and 9 of the nucleotide sequence 1 are fluoro modified nucleotides, and each of the nucleotides at the other positions in the nucleotide sequence 1 is independently a non-fluoro modified nucleotide; the first nucleotide at 5' terminal of the nucleotide sequence 2 is the first nucleotide at 5' terminal of the antisense strand, the nucleotides at positions 2, 6, 14 and 16 of the nucleotide sequence 2 are fluoro modified nucleotides, and each of the nucleotides at the other positions in the nucleotide sequence 2 is independently a non-fluoro modified nucleotide, wherein each fluoro modified nucleotide is a nucleotide formed by substituting the 2'-hydroxy of the ribose group of the nucleotide with a fluorine atom, and each non-fluoro modified nucleotide is independently selected from a nucleotide formed by substituting the 2'-hydroxy of the ribose group of the nucleotide with a non-fluoro group.
A multilayer fouling release coating comprising: an anticorrosive primer layer comprising epoxy; and a layer comprising at least one curable or crosslinkable polysiloxane, at least one silane terminated polyurethane; and a catalyst. an anticorrosive primer layer comprising epoxy; and a layer comprising at least one curable or crosslinkable polysiloxane, at least one silane terminated polyurethane; and a catalyst.
A system for locking a slab on a receiving structure comprising: - a body secured to the slab, - a locking finger movable in a housing formed in the body and intended to bear on the receiving structure in a locked position, - an elastic member for driving the locking finger into the locked position, - a return member of the locking finger, said return member being able to adopt a folded position in which the locking finger is in the unlocked position and an unfolded position in which the locking finger is in the locked position, and - a means for blocking the return member in the folded position, characterised in that the return member of the locking finger in an unlocked position comprises a magnetisable part intended to be moved by the action of a magnetic field against the action of the elastic member and in that the blocking means is in the form of a part fastened on the body and comprising a first portion intended to bear against the return member in the folded position so as to hold said return member in the folded position and a second portion able to enable deformation of the blocking means by application of a force (F1, F2) on said second portion so that said first portion lies away from the return member in the folded position. - a body secured to the slab, - a locking finger movable in a housing formed in the body and intended to bear on the receiving structure in a locked position, - an elastic member for driving the locking finger into the locked position, - a return member of the locking finger, said return member being able to adopt a folded position in which the locking finger is in the unlocked position and an unfolded position in which the locking finger is in the locked position, and - a means for blocking the return member in the folded position,
A process, comprising: (a) contacting a valuable metal-containing material with an acidic leaching solution having an acid component to form a pregnant leach solution comprising a dissolved valuable metal, wherein the dissolved valuable metal is a plurality of rare earths; (b) recovering the dissolved valuable metal to form a valuable metal product and a byproduct salt solution, the byproduct salt solution derived from reacting a base with the acid component, wherein the byproduct salt solution comprises one or both of sodium chloride and potassium chloride, wherein the base is one or both of sodium hydroxide and potassium hydroxide, wherein the valuable metal product is a rare earth oxide, wherein the acid component is hydrochloric acid, wherein the byproduct salt solution comprises an organic contaminant; (c) removing at least most of the organic contaminant to form a purified salt solution; (d) electrochemically converting the purified salt solution into the acid component and the base, wherein the electrochemical converting is performed by one or more of a chloralkali and bipolar membrane electrodialysis cell; (e) recycling the acid component of step (d) to step (a); and (f) recycling the base of step (d) to at least one of steps (a) and (b). (a) contacting a valuable metal-containing material with an acidic leaching solution having an acid component to form a pregnant leach solution comprising a dissolved valuable metal, wherein the dissolved valuable metal is a plurality of rare earths; (b) recovering the dissolved valuable metal to form a valuable metal product and a byproduct salt solution, the byproduct salt solution derived from reacting a base with the acid component, wherein the byproduct salt solution comprises one or both of sodium chloride and potassium chloride, wherein the base is one or both of sodium hydroxide and potassium hydroxide, wherein the valuable metal product is a rare earth oxide, wherein the acid component is hydrochloric acid, wherein the byproduct salt solution comprises an organic contaminant; (c) removing at least most of the organic contaminant to form a purified salt solution; (d) electrochemically converting the purified salt solution into the acid component and the base, wherein the electrochemical converting is performed by one or more of a chloralkali and bipolar membrane electrodialysis cell; (e) recycling the acid component of step (d) to step (a); and (f) recycling the base of step (d) to at least one of steps (a) and (b).
A V-ribbed belt pulley system comprising (a) a V-ribbed belt (102, 202) having an outer back-side section (128, 228), an inner front-side section (122, 222) having a plurality of laterally spaced longitudinally extending v-ribs, and a load-carrying section (124, 224) disposed between said back-side and said front-side sections, (b) a front-side driving pulley (108, 208) frictionally engaged with the front-side section of the V-ribbed belt, and (c) a flat-faced back-side pulley (110, 210) frictionally engaged with the back-side section of the V-ribbed belt, wherein the outer surface of the back-side section (120, 220) of the V-ribbed belt have formed therein a plurality of continuous spaced, longitudinally extending raised features (132, 232): - separated by continuous longitudinally extending low regions (134, 234) along the length of the back side section having a depth of 0.1 to 1.0 mm alternating therebetween -- having a width of 0.2 mm to 1.8 mm and a center to center distance of 0.4 mm to 3.6 mm and - the raised features contact the flat-faced back-side pulley forming a reduced contact patch therewith, the reduced contact patch having an area of 20% to 50% of the area of a full contact patch that would be formed between the flat-faced back-side pulley and a flat-faced belt over the same length of engagement, wherein the low regions do not define any portion of the reduced contact patch and are curved, arcuate, or flat. - separated by continuous longitudinally extending low regions (134, 234) along the length of the back side section having a depth of 0.1 to 1.0 mm alternating therebetween -- having a width of 0.2 mm to 1.8 mm and a center to center distance of 0.4 mm to 3.6 mm and - the raised features contact the flat-faced back-side pulley forming a reduced contact patch therewith, the reduced contact patch having an area of 20% to 50% of the area of a full contact patch that would be formed between the flat-faced back-side pulley and a flat-faced belt over the same length of engagement, wherein the low regions do not define any portion of the reduced contact patch and are curved, arcuate, or flat.
Motor vehicle tyre having a tread extending around an axis of rotation and comprising a central annular portion which straddles an equatorial plane (X-X) and two annular shoulder portions arranged on axially opposite sides of the central annular portion, the tread band having a void-to-rubber ratio of less than 10%; each shoulder portion having an axial extension less than 35% of the lateral development of the tread band and comprising a plurality of second grooves extending substantially transversally forming an average angle with the equatorial plane (X-X) of more than 90°; wherein the angle of a groove is defined, for each point of the groove, by a rotation of a vector oriented opposite to the tyre rolling direction from said equatorial plane (X-X) and reaching the direction tangent to the groove passing at that point; characterized in that: the central annular portion has an axial extension less than 50% of the lateral development of the tread band and comprises a plurality of pairs of first grooves extending substantially longitudinally on opposite sides of the equatorial plane (X-X), the central annular portion has a void-to-rubber ratio of more than 0.15 and the first grooves comprise at least one first segment and at least one second segment which is inclined with respect to said first segment so as to form a concavity directed towards the equatorial plane (X-X), the first segment of each first groove being shorter than the second segment and preceding the second segment in the tyre rolling direction. the central annular portion has an axial extension less than 50% of the lateral development of the tread band and comprises a plurality of pairs of first grooves extending substantially longitudinally on opposite sides of the equatorial plane (X-X), the central annular portion has a void-to-rubber ratio of more than 0.15 and the first grooves comprise at least one first segment and at least one second segment which is inclined with respect to said first segment so as to form a concavity directed towards the equatorial plane (X-X), the first segment of each first groove being shorter than the second segment and preceding the second segment in the tyre rolling direction.
A method of purifying a target analyte with an apatite solid surface, the method comprising: (a) contacting the apatite solid surface with the target analyte, thereby separating the target analyte from one or more contaminants; (b) collecting the target analyte; and (c) after collecting the target analyte, regenerating the apatite solid surface, the regenerating comprising: (i) contacting the apatite solid surface with a buffered calcium solution comprising a calcium ion at a concentration of at least 5 mM and a zwitterionic buffer, wherein the ratio of zwitterionic buffer concentration to calcium ion concentration is at least 2, and the pH of the buffered calcium solution is at least 5; (ii) followed by contacting the apatite solid surface with a phosphate buffered solution at a pH of at least 6.5; and (iii) followed by contacting the apatite solid surface with a solution comprising an hydroxide. (a) contacting the apatite solid surface with the target analyte, thereby separating the target analyte from one or more contaminants; (b) collecting the target analyte; and (c) after collecting the target analyte, regenerating the apatite solid surface, the regenerating comprising: (i) contacting the apatite solid surface with a buffered calcium solution comprising a calcium ion at a concentration of at least 5 mM and a zwitterionic buffer, wherein the ratio of zwitterionic buffer concentration to calcium ion concentration is at least 2, and the pH of the buffered calcium solution is at least 5; (ii) followed by contacting the apatite solid surface with a phosphate buffered solution at a pH of at least 6.5; and (iii) followed by contacting the apatite solid surface with a solution comprising an hydroxide. (i) contacting the apatite solid surface with a buffered calcium solution comprising a calcium ion at a concentration of at least 5 mM and a zwitterionic buffer, wherein the ratio of zwitterionic buffer concentration to calcium ion concentration is at least 2, and the pH of the buffered calcium solution is at least 5; (ii) followed by contacting the apatite solid surface with a phosphate buffered solution at a pH of at least 6.5; and (iii) followed by contacting the apatite solid surface with a solution comprising an hydroxide.