mhurhangee/ep-ind-claims huggingface dataset:
A system for measuring the position of a hand-held tool relative to a body in five or six degrees of freedom, the system comprising: a rigid or semi-flexible tool having a distal end for insertion into the body, and a proximal portion for manual manipulation outside the body; a flexible patch carrying a plurality of markers (310-313; 1310; 1314), the patch configured to be applied or attached to an external surface of the body; a camera (115; 116) for generating images; a mechanical linkage is configured to attach said camera (115; 116) to the proximal portion of said tool such that: said camera (115; 116) moves together with said proximal portion of said tool, and said camera (115; 116) is directed with a field of view toward at least part of said distal end of said tool, and wherein the field of view includes the markers (310-313; 1310; 1314) when the patch is applied or attached to the external surface of the body and the distal end of the tool is inserted into the body; and a processing system in data communication with said camera (115; 116) and configured to obtain from the camera images of the external surface of the body including the plurality of said markers (310-313; 1310; 1314), and configured to process the images from said camera (115; 116) to determine a position of at least part of said tool relative to the markers (310-313; 1310; 1314). a rigid or semi-flexible tool having a distal end for insertion into the body, and a proximal portion for manual manipulation outside the body; a flexible patch carrying a plurality of markers (310-313; 1310; 1314), the patch configured to be applied or attached to an external surface of the body; a camera (115; 116) for generating images; a mechanical linkage is configured to attach said camera (115; 116) to the proximal portion of said tool such that: said camera (115; 116) moves together with said proximal portion of said tool, and said camera (115; 116) is directed with a field of view toward at least part of said distal end of said tool, and wherein the field of view includes the markers (310-313; 1310; 1314) when the patch is applied or attached to the external surface of the body and the distal end of the tool is inserted into the body; and said camera (115; 116) moves together with said proximal portion of said tool, and said camera (115; 116) is directed with a field of view toward at least part of said distal end of said tool, and wherein the field of view includes the markers (310-313; 1310; 1314) when the patch is applied or attached to the external surface of the body and the distal end of the tool is inserted into the body; and a processing system in data communication with said camera (115; 116) and configured to obtain from the camera images of the external surface of the body including the plurality of said markers (310-313; 1310; 1314), and configured to process the images from said camera (115; 116) to determine a position of at least part of said tool relative to the markers (310-313; 1310; 1314).
A computer implemented method for providing image-based guidance for remote assistance with electronic hardware component configuration, the method comprising the steps of: receiving, by a remote computer, hardware component identification information, the hardware component identification information being automatically identified by a component identification agent and being associated with at least one electronic hardware component of a user's computing system, to remotely assist the user with configuration of the at least one associated electronic hardware component; wherein receiving hardware component identification information further comprises receiving hardware component identification information from the component identification agent and the component identification agent polling the at least one electronic hardware component of the user's computing system or polling an operating system of the user's computing system; retrieving, by the remote computer, using the component identification information at least one image associated with the at least one electronic hardware component; transmitting, by the remote computer, the at least one image, to remotely assist a user with configuration of the at least one associated electronic hardware component; and providing, by the remote computer, at least one visual cue concerning the at least one image to the user, to further remotely assist the user with configuration of the at least one associated electronic hardware component. receiving, by a remote computer, hardware component identification information, the hardware component identification information being automatically identified by a component identification agent and being associated with at least one electronic hardware component of a user's computing system, to remotely assist the user with configuration of the at least one associated electronic hardware component; wherein receiving hardware component identification information further comprises receiving hardware component identification information from the component identification agent and the component identification agent polling the at least one electronic hardware component of the user's computing system or polling an operating system of the user's computing system; retrieving, by the remote computer, using the component identification information at least one image associated with the at least one electronic hardware component; transmitting, by the remote computer, the at least one image, to remotely assist a user with configuration of the at least one associated electronic hardware component; and providing, by the remote computer, at least one visual cue concerning the at least one image to the user, to further remotely assist the user with configuration of the at least one associated electronic hardware component.
A printer, comprising: a media feeding system for feeding media into a print zone along a first axis; a carriage to mount at least one printhead, the carriage attached to a drive system that moves the carriage in the print zone along a second axis perpendicular to the first axis; a controller coupled to the media feeding system, the drive system and the carriage; memory coupled to the controller, the memory having an ink control module loaded therein, the ink control module, when executed by the processor, causing the printer to print multiple swaths of ink onto media in the print zone without advancing the media, where the multiple swaths of ink are printed with a first ink distribution per swath when the width of media is below a threshold, and to print multiple swaths of ink with a second ink distribution per swath when the width of the media is not below the threshold, where the first ink distribution per swath is different than the second ink distribution per swath, where the second ink distribution has more ink printed in a last swath of the multiple swaths than in other of the multiple swaths. a media feeding system for feeding media into a print zone along a first axis; a carriage to mount at least one printhead, the carriage attached to a drive system that moves the carriage in the print zone along a second axis perpendicular to the first axis; a controller coupled to the media feeding system, the drive system and the carriage; memory coupled to the controller, the memory having an ink control module loaded therein,
Vehicle comprising - at least one electric motor configured for driving the vehicle, - a battery pack (2, 2') configured to supply the electric motor with electric power for driving the vehicle, - a vehicle body frame structure (3, 4, 5) configured to form a main supporting structure of the vehicle, and - a collision energy absorbing system (6, 7, 8, 9, 10, 11, 12, 13) configured to absorb collision energy in the event of an accident, the collision energy absorbing system comprising a first absorbing structure (6, 7, 8, 11, 12, 13) that is positioned between the battery pack (2, 2') and a front of the vehicle, characterized in that the battery pack (2, 2') is arranged on a sub-frame (6, 7, 8) which is attached to the vehicle body frame structure (3, 4, 5) in a releasable manner so that when the vehicle body frame structure is subject to a deceleration that exceeds a threshold value, the sub-frame (6, 7, 8) and the battery pack (2, 2') is decoupled from the vehicle body frame structure (3, 4, 5). - at least one electric motor configured for driving the vehicle, - a battery pack (2, 2') configured to supply the electric motor with electric power for driving the vehicle, - a vehicle body frame structure (3, 4, 5) configured to form a main supporting structure of the vehicle, and - a collision energy absorbing system (6, 7, 8, 9, 10, 11, 12, 13) configured to absorb collision energy in the event of an accident, the collision energy absorbing system comprising a first absorbing structure (6, 7, 8, 11, 12, 13) that is positioned between the battery pack (2, 2') and a front of the vehicle,
An aluminum alloy clad material comprising: a core material comprising an aluminum alloy; and a sacrificial anode material layer clad on one surface or both surfaces of the core material, wherein the core material comprises an aluminum alloy comprising more than 0 mass% and less than 0.2 mass% Si, 0.05 to 0.30 mass% Fe, 1.0 to 2.5 mass% Cu, 1.0 to 1.6 mass% Mn, 0.1 to 1.0 mass% Mg, and optionally one or more selected from a group consisting of 0.05 to 0.20 mass% Ti, 0.05 to 0.20 mass% Zr, 0.05 to 0.20 mass% Cr, 0.05 to 0.20 mass% V, and less than or equal to 0.05 mass% B, with a balance of Al and inevitable impurities; the sacrificial anode material layer comprises an aluminum alloy comprising 0.1 to 1.5 mass% Si, 0.1 to 2.0 mass% Mg, and optionally one or more selected from a group consisting of 0.05 to 1.00 mass% Fe, 0.05 to 1.00 mass% Ni, 0.05 to 1.00 mass% Cu, 0.05 to 1.50 mass% Mn, 0.05 to 1.00 mass% Zn, 0.05 to 0.20 mass% Ti, 0.05 to 0.30 mass% Zr, 0.05 to 0.30 mass% Cr, and 0.05 to 0.30 mass% V, with a balance of Al and inevitable impurities; in the core material, a number density of an Al-Mn-based intermetallic compound having an equivalent circle diameter of 0.1 μm or more is 1.0 × 10 5 particles /mm 2 or more, and a number density of Al 2 Cu having an equivalent circle diameter of 0.1 μm or more is 1.0 × 10 5 particles /mm 2 or less; and in the sacrificial anode material layer, a number density of a Mg-Si-based crystallized product having an equivalent circle diameter of 0.1 to 5.0 μm is 100 to 150,000 particles /mm 2, and a number density of a Mg-Si-based crystallized product having an equivalent circle diameter of more than 5.0 μm and 10.0 μm or less is 5 particles /mm 2 or less.
A DPP-4 inhibitor, which is linagliptin, for preventing, slowing the progression of, delaying or treating type 1 diabetes mellitus or non alcoholic fatty liver disease (NAFLD) by subcutaneous administration.
A multi-layer microfluidic device for parallelization of microfluidic systems comprising: a distribution network including a plurality of channels to control the flow of a fluid, the distribution network being formed in at least two layers of plates or substrates to form a fractal pattern of fluid channels aligned between the layers by through-holes in each layer; the distribution network connecting a stack of plates or substrates forming emulsion generation layers, wherein the distribution network includes at least two distribution layers, each distribution layer including a fractal pattern of fluidic channel and through holes interconnecting them with the stack of emulsion generation layers; at least one inlet or input per immiscible fluid and at least one outlet or output to allow accessibility of immiscible liquids and exit of droplets, characterized in that the at least one inlet or input per immiscible fluid is accessible from a surface of the device and are axisymmetric inputs arranged axisymmetrically in a center of the device at the top and on the bottom. a distribution network including a plurality of channels to control the flow of a fluid, the distribution network being formed in at least two layers of plates or substrates to form a fractal pattern of fluid channels aligned between the layers by through-holes in each layer; the distribution network connecting a stack of plates or substrates forming emulsion generation layers, wherein the distribution network includes at least two distribution layers, each distribution layer including a fractal pattern of fluidic channel and through holes interconnecting them with the stack of emulsion generation layers; at least one inlet or input per immiscible fluid and at least one outlet or output to allow accessibility of immiscible liquids and exit of droplets, characterized in that the at least one inlet or input per immiscible fluid is accessible from a surface of the device and are axisymmetric inputs arranged axisymmetrically in a center of the device at the top and on the bottom.
Body of a motor vehicle with a vehicle pillar connected to a longitudinal member (12, 26), where the longitudinal member (12, 26) is made of a light metal characterised in that, at least in area in which the two are connected, the vehicle and longitudinal member (12, 26), are made of different material, the vehicle column consisting of steel or a fibre-reinforced plastic and the longitudinal member (12, 26), of an aluminium alloy.
A sub-node (80; 94) configured to be used in a cellular communication network, said sub-node comprising: - at least one transmitting and receiving coverage antenna to generate coverage in at least one geographical secondary coverage area (a; a1, a2, a2 a, a2 b), said at least one sub-node (80; 94) is configured to be in communication with a node (81, 82; 91-93), generating coverage in a geographical primary coverage area (A-B; A-C), to extend the coverage (A-B; A-C) of said node (81, 82; 91-93) to include one of said at least one geographical secondary coverage area (a; a1, a2, a2 a, a2 b), said sub-node (80; 94) further comprises: - at least one link antenna (31, 32) configured to provide communication with a plurality of nodes (81, 82; 91-93), characterized in that said sub-node further comprises: - means to divide the secondary coverage area (a; a2) of said at least one sub-node (80; 94) into at least two parts (a1, a2, a2 a, a2 b) dependent on measured parameters, wherein said measured parameters is any of the group: traffic load, signal quality, power level, and - a control mechanism configured to select a first node (81; 91) and a second node (82; 92) from said plurality of nodes to extend each coverage of said selected first node (81; 91) to include at least one part (a2, a2 b) of said divided secondary coverage area (a; a2), and second node (82; 92) to include at least one other part (a1, a2 a) of said divided secondary coverage area (a; a2). - at least one transmitting and receiving coverage antenna to generate coverage in at least one geographical secondary coverage area (a; a1, a2, a2 a, a2 b), said at least one sub-node (80; 94) is configured to be in communication with a node (81, 82; 91-93), generating coverage in a geographical primary coverage area (A-B; A-C), to extend the coverage (A-B; A-C) of said node (81, 82; 91-93) to include one of said at least one geographical secondary coverage area (a; a1, a2, a2 a, a2 b), said sub-node (80; 94) further comprises: - at least one link antenna (31, 32) configured to provide communication with a plurality of nodes (81, 82; 91-93), characterized in that said sub-node further comprises: - means to divide the secondary coverage area (a; a2) of said at least one sub-node (80; 94) into at least two parts (a1, a2, a2 a, a2 b) dependent on measured parameters, wherein said measured parameters is any of the group: traffic load, signal quality, power level, and - a control mechanism configured to select a first node (81; 91) and a second node (82; 92) from said plurality of nodes to extend each coverage of said selected first node (81; 91) to include at least one part (a2, a2 b) of said divided secondary coverage area (a; a2), and second node (82; 92) to include at least one other part (a1, a2 a) of said divided secondary coverage area (a; a2).
A method for preparing tolimidone, comprising: (i) reacting the compound of formula 6 and the compound of formula 5 in the presence of a tetra-substituted ammonium salt catalyst to prepare the compound of formula 4; (ii) conducting Vilsmeir reaction for the prepared compound of formula 4 to prepare the compound of formula 3; (iii) refluxing with agitation the prepared compound of formula 3 together with urea and an alkoxide base to prepare the salt compound of formula 2; and (iv) desalting the prepared salt compound of formula 2 to obtain tolimidone of formula 1 and recrystallizing the obtained tolimidone with an alcohol that corresponds to the alkoxide base: wherein A + is a cation of the alkoxide base. (i) reacting the compound of formula 6 and the compound of formula 5 in the presence of a tetra-substituted ammonium salt catalyst to prepare the compound of formula 4; (ii) conducting Vilsmeir reaction for the prepared compound of formula 4 to prepare the compound of formula 3; (iii) refluxing with agitation the prepared compound of formula 3 together with urea and an alkoxide base to prepare the salt compound of formula 2; and (iv) desalting the prepared salt compound of formula 2 to obtain tolimidone of formula 1 and recrystallizing the obtained tolimidone with an alcohol that corresponds to the alkoxide base: wherein A + is a cation of the alkoxide base.
An inorganic passive sampler used for different purposes such as indoor sampling, outdoor sampling and personal sampling for inorganic air pollutants such as NO 2, SO 2 and O 3, and comprising - a first semicircular piece comprising a first inner base; - a second semicircular piece comprising a second inner base; wherein the first and the second semicircular piece are placed next to each other on a substrate and are connected to each other so as to form a single sampler; - NO 2 -SO 2 retaining means which is in the first semicircular pieces and O 3 retaining means which is in the second semicircular piece, wherein the NO 2 SO 2 retaining means are formed by a stainless steel metal filter coated with 20% triethanolamine solution, and wherein the O 3 retaining means are formed by a stainless steel metal filter coated with an aqueous solution comprising 1% NaNO 2, 2% Na 2 CO 3 and 2% glycerol; - a first fixing apparatus for fixing the NO 2 -SO 2 retaining means to the first inner base and enabling the NO 2 -SO 2 retaining means to completely fit into the first inner base wherein the first fixing apparatus is configured so as to completely fit to the first inner base; and - a second fixing apparatus for fixing the O 3 retaining means to the second inner base and enabling the O 3 retaining means to completely fit into the second inner base, wherein the second fixing apparatus is configured so as to completely fit to the second inner base. - a first semicircular piece comprising a first inner base; - a second semicircular piece comprising a second inner base; wherein the first and the second semicircular piece are placed next to each other on a substrate and are connected to each other so as to form a single sampler; - NO 2 -SO 2 retaining means which is in the first semicircular pieces and O 3 retaining means which is in the second semicircular piece, wherein the NO 2 SO 2 retaining means are formed by a stainless steel metal filter coated with 20% triethanolamine solution, and wherein the O 3 retaining means are formed by a stainless steel metal filter coated with an aqueous solution comprising 1% NaNO 2, 2% Na 2 CO 3 and 2% glycerol; wherein the NO 2 SO 2 retaining means are formed by a stainless steel metal filter coated with 20% triethanolamine solution, and wherein the O 3 retaining means are formed by a stainless steel metal filter coated with an aqueous solution comprising 1% NaNO 2, 2% Na 2 CO 3 and 2% glycerol; - a first fixing apparatus for fixing the NO 2 -SO 2 retaining means to the first inner base and enabling the NO 2 -SO 2 retaining means to completely fit into the first inner base wherein the first fixing apparatus is configured so as to completely fit to the first inner base; and - a second fixing apparatus for fixing the O 3 retaining means to the second inner base and enabling the O 3 retaining means to completely fit into the second inner base, wherein the second fixing apparatus is configured so as to completely fit to the second inner base.
An electro-stimulation device adapted to stimulate the supplementary motor area, premotor area and/or subthalmic nucleus via auricular muscles comprising; • at least two electrodes configured to enable sending and receiving electric signals, • at least one control unit configured to enable signals to be sent to/received from electrodes • a ground electrode configured to provide closing of the loop for the electrical current by providing an electrical path to the negative terminal of a power supply, • the control unit configured to produce stimulating signals which have the frequency of 2-200 Hz for reducing resting tremors over activities wherein: • the electrodes are adapted to be attached to intrinsic auricular muscles of helicis major, helicis minor, tragicus or anti-tragicus in stimulating contact therewith so as to stimulate the supplementary motor area, premotor area and/or subthalmic nucleus, - said electro-stimulation device further comprising at least one sensing unit configured to enable receiving data from a patient, - said sensing unit being a signal receiver, configured to utilize the electrodes in order to receive the signals passing by the muscles to which these electrodes are attached, characterized in that - said sensing unit is configured to sense the intensity of disturbances during a resting tremor period by measuring the signals passing from the muscles to which said electrodes are attached, - said control unit is configured to adjust said stimulation signal upon measuring the disturbance levels so that the said disturbances are compensated. • at least two electrodes configured to enable sending and receiving electric signals, • at least one control unit configured to enable signals to be sent to/received from electrodes • a ground electrode configured to provide closing of the loop for the electrical current by providing an electrical path to the negative terminal of a power supply, • the control unit configured to produce stimulating signals which have the frequency of 2-200 Hz for reducing resting tremors over activities wherein: • the electrodes are adapted to be attached to intrinsic auricular muscles of helicis major, helicis minor, tragicus or anti-tragicus in stimulating contact therewith so as to stimulate the supplementary motor area, premotor area and/or subthalmic nucleus, - said electro-stimulation device further comprising at least one sensing unit configured to enable receiving data from a patient, - said sensing unit being a signal receiver, configured to utilize the electrodes in order to receive the signals passing by the muscles to which these electrodes are attached, characterized in that - said sensing unit is configured to sense the intensity of disturbances during a resting tremor period by measuring the signals passing from the muscles to which said electrodes are attached, - said control unit is configured to adjust said stimulation signal upon measuring the disturbance levels so that the said disturbances are compensated.
An assembly for spacecraft comprising: - a support configured to be fixed onto a spacecraft, - a thruster resting on the support, - an orientation device comprising at least one actuator able to modify the orientation of the thruster, characterized in that the actuator comprises at least two electrodes and at least one electroactive polymer arranged between the at least two electrodes. - a support configured to be fixed onto a spacecraft, - a thruster resting on the support, - an orientation device comprising at least one actuator able to modify the orientation of the thruster, characterized in that the actuator comprises at least two electrodes and at least one electroactive polymer arranged between the at least two electrodes.