mhurhangee/ep-ind-claims huggingface dataset:
A transmit coil array, comprising: a plurality of jigs, each jig comprising a pair of end members, and a center member disposed between the pair of end members, wherein the pair of end members and the center member together provide a coil channel, wherein the coil channel comprises dividers, and wherein the center member, the dividers, and the end member together provide wire channels; and a wire wrapped on the center member and in the wire channels to provide a coil, wherein the coil is configured to connect to an electromagnetic navigation system and generate an electromagnetic field to be emitted relative to a subject; wherein the jig comprises a crossover section in which the wire is switched between two of the wire channels, wherein the wire crosses itself a plurality of times in the crossover section, the crossover section extending through the dividers, such that each divider is non-contiguous annularly to provide an area where the wire is switched between the two wire channels, upon increasing the wire layer; wherein the wire is wrapped in the wire channels in opposing first and second directions to provide a plurality of wire layers; and a base plate, wherein each of the plurality of jigs is mounted on the base plate in a respective location and orientation relative to each of the plurality of jigs on the base plate. a plurality of jigs, each jig comprising a pair of end members, and a center member disposed between the pair of end members, wherein the pair of end members and the center member together provide a coil channel, wherein the coil channel comprises dividers, and wherein the center member, the dividers, and the end member together provide wire channels; and a pair of end members, and a center member disposed between the pair of end members, wherein the pair of end members and the center member together provide a coil channel, wherein the coil channel comprises dividers, and wherein the center member, the dividers, and the end member together provide wire channels; and a wire wrapped on the center member and in the wire channels to provide a coil, wherein the coil is configured to connect to an electromagnetic navigation system and generate an electromagnetic field to be emitted relative to a subject; wherein the jig comprises a crossover section in which the wire is switched between two of the wire channels, wherein the wire crosses itself a plurality of times in the crossover section, the crossover section extending through the dividers, such that each divider is non-contiguous annularly to provide an area where the wire is switched between the two wire channels, upon increasing the wire layer; wherein the wire is wrapped in the wire channels in opposing first and second directions to provide a plurality of wire layers; and a base plate, wherein each of the plurality of jigs is mounted on the base plate in a respective location and orientation relative to each of the plurality of jigs on the base plate.
An apparatus for operating a microfluidic device comprising a carrier portion, the apparatus comprising: a platen having a platen face with a plurality of fluid ports therein, the fluid ports spatially corresponding to one or more inlets on a surface of the carrier portion of the microfluidic device; a platform for holding the microfluidic device relative to the platen; a platen actuator for urging the platen against the microfluidic device so that at least one of the fluid ports of the platen is urged against one of the inlets to form a pressure chamber comprising the inlet and the port, so that when pressurized fluid is introduced or removed into or from the pressure chamber through one of the ports, fluid pressure is changed therein. a platen having a platen face with a plurality of fluid ports therein, the fluid ports spatially corresponding to one or more inlets on a surface of the carrier portion of the microfluidic device; a platform for holding the microfluidic device relative to the platen; a platen actuator for urging the platen against the microfluidic device so that at least one of the fluid ports of the platen is urged against one of the inlets to form a pressure chamber comprising the inlet and the port, so that when pressurized fluid is introduced or removed into or from the pressure chamber through one of the ports, fluid pressure is changed therein.
Product comprising: a) at least one substance selected from among recombinant nucleic acids, myoblasts, isolated mesenchymal stem cells, isolated hematopoietic stem cells and immunocompetent cells, said substance being contained in a primary container; and b) a secondary container, wherein is contained the primary container, said secondary container being constituted of an insulating material; and c) a tertiary container comprising a thermal regulation unit; and said secondary container being contained in the tertiary container. a) at least one substance selected from among recombinant nucleic acids, myoblasts, isolated mesenchymal stem cells, isolated hematopoietic stem cells and immunocompetent cells, said substance being contained in a primary container; and b) a secondary container, wherein is contained the primary container, said secondary container being constituted of an insulating material; and c) a tertiary container comprising a thermal regulation unit;
Electric machine having a tangential architecture comprising: - a rotor, rotating about an axis of rotation (X-X), - a stator, coaxial to the rotor with respect to said axis of rotation (X-X), - the stator comprising a casing which incorporates at least partially the rotor, - a power supply body which incorporates means of control for the actuation, power supply and control of the electric machine, the power supply body being placed outside the stator and parallel to the axis of rotation (X-X) in a position substantially tangent to the casing of the stator, the control means comprising a power module to power the electric machine, wherein - the power module is provided with a main heat sink, suitable to dissipate the thermal power emitted by the power module itself, - the power module is thermally insulated from the remaining control means, characterized in that the power module is provided with an insulating frame that peripherally surrounds the power module so as to insulate it thermally from the remaining control means. - a rotor, rotating about an axis of rotation (X-X), - a stator, coaxial to the rotor with respect to said axis of rotation (X-X), - the stator comprising a casing which incorporates at least partially the rotor, - a power supply body which incorporates means of control for the actuation, power supply and control of the electric machine, the power supply body being placed outside the stator and parallel to the axis of rotation (X-X) in a position substantially tangent to the casing of the stator, the control means comprising a power module to power the electric machine, wherein - the power module is provided with a main heat sink, suitable to dissipate the thermal power emitted by the power module itself, - the power module is thermally insulated from the remaining control means,
An isolated mammalian antibody or antigen binding fragment thereof that binds canine Programmed Death Receptor 1 (canine PD-1) with specificity comprising three light chain complementary determining regions (CDRs): CDR light 1 (CDRL1), CDR light 2 (CDRL2), and CDR light 3 (CDRL3); and three heavy chain CDRs: CDR heavy 1 (CDRH1), CDR heavy 2 (CDRH2) and CDR heavy 3 (CDRH3): (a) wherein CDRL1 comprises the amino acid sequence of SEQ ID NO: 15; (b) wherein CDRL2 comprises the amino acid sequence of SEQ ID NO: 18; (c) wherein CDRL3 comprises the amino acid sequence of SEQ ID NO: 24; (d) wherein CDRH1 comprises the amino acid sequence of SEQ ID NO: 29; (e) wherein CDRH2 comprises the amino acid of SEQ ID NO: 33; (f) wherein CDRH3 comprises the amino acid sequence of SEQ ID NO: 38; wherein the mammalian antibody or antigen binding fragment thereof when bound to canine PD-1, binds to SEQ ID NO: 84; and wherein the antibody and antigen binding fragment thereof bind canine PD-1 and block the binding of canine PD-1 to canine Programmed Death Ligand 1 (PD-L1), wherein the mammalian antibody is a murine antibody; and wherein the heavy chain variable region is encoded by the nucleotide sequence of SEQ ID NO: 51 and the light chain variable region is encoded by the nucleotide sequence of SEQ ID NO: 53. (a) wherein CDRL1 comprises the amino acid sequence of SEQ ID NO: 15; (b) wherein CDRL2 comprises the amino acid sequence of SEQ ID NO: 18; (c) wherein CDRL3 comprises the amino acid sequence of SEQ ID NO: 24; (d) wherein CDRH1 comprises the amino acid sequence of SEQ ID NO: 29; (e) wherein CDRH2 comprises the amino acid of SEQ ID NO: 33; (f) wherein CDRH3 comprises the amino acid sequence of SEQ ID NO: 38;
A system for retorting oil shale, comprising, multi-fuel combustor, which is suitable for the combustion of different fuels, including spent shale, shale oil, shale gases and waste gases, pressurised retort, which is operated with an excess pressure compared to the atmospheric multi-fuel combustor to prevent air/flue gas leakage from the multi-fuel combustor to the pressurised retort and designed as a moving bed with continuous oil shale feed from the top and the spent shale exits at the bottom, and the retort gases exits from bottom and/or from several locations at the sidewall, heat pipe heat exchanger connected to the multi-fuel combustor and configured to indirectly heat the pressurized retort, waste heat recovery system, which is arranged downstream of the combustor and absorbs the waste heat of the flue gas to supply thermal energy for the use in the oil shale dryer or where it needs in the process, fluidized bed ash cooler, which cools down the shale ash temperature and preheats the combustion air that is supplied to the multi-fuel combustor, oil shale dryer, which decreases the moisture content of the raw oil shale using low-temperature steam, process water or thermal oil from the waste heat recovery system, providing the required thermal energy for the drying process, condensation system, which extracts wastewater, shale oil and non-condensable gases from the retort gases.
Method for the diagnosis, prognosis, stratification and/or monitoring of a therapy, of breast cancer in a patient, comprising the steps of a. Providing a blood sample of said patient, b. Determining the level of hyaluronic acid and S100P in said blood sample, and c. Comparing the level of HA and S100P as determined in b. with a control, wherein an increase in the level of HA and S100P in said blood sample compared to said control is indicative for the presence of breast cancer in said patient. a. Providing a blood sample of said patient, b. Determining the level of hyaluronic acid and S100P in said blood sample, and c. Comparing the level of HA and S100P as determined in b. with a control,
A submersible machine guide assembly suitable for guiding a submersible machine in a tank from an upper position towards an operative position, the guide assembly comprising: - a top mount configured to be arranged at the upper region of the tank, - a supporting member configured to be arranged in the tank, - two guide wires running along each other in the vertical direction of the tank, wherein each of said guide wires is connected to the top mount at a first end and is connected to a seat of the supporting member at a second end, - a runner that is displaceable along said guide wires, the runner comprising two guide members that engage the guide wires and that are connected to each other at the lower ends thereof, wherein the lower end of each guide member is configured to engage the corresponding seat of the supporting member when the runner is in the operative position, and - a sliding bracket configured to be connected to the submersible machine and configured to engage the runner, characterized in that the guide members are also connected to each other at the upper ends thereof, and in that the sliding bracket is displaceable along the guide members of the runner when the runner is located in the operative position. - a top mount configured to be arranged at the upper region of the tank, - a supporting member configured to be arranged in the tank, - two guide wires running along each other in the vertical direction of the tank, wherein each of said guide wires is connected to the top mount at a first end and is connected to a seat of the supporting member at a second end, - a runner that is displaceable along said guide wires, the runner comprising two guide members that engage the guide wires and that are connected to each other at the lower ends thereof, wherein the lower end of each guide member is configured to engage the corresponding seat of the supporting member when the runner is in the operative position, and - a sliding bracket configured to be connected to the submersible machine and configured to engage the runner,
A process for assembling electronic components comprising the steps of: i) providing a placement fixture comprising a rigid base having a sticky coating on one surface thereof and including a layer of release material interposed between said rigid base and said sticky coating; ii) placing a plurality of electronic components (6.1, 6.2, 11) at least some of which include electric contacts, on said sticky coating in a desired pattern; iii) placing a containment means (7,95) on said sticky coating, said containment means at least partially enclosing the components; iv) (a) dispensing sufficient encapsulant into the containment means to thereby at least partially encapsulate at least some of the components; or (b) dispensing a first quantity of encapsulant sufficient on solidification to maintain the components in position, and dispensing a second quantity of encapsulant sufficient to provide structural integrity to the placed components; v) separating, using a two-step removal process, the placement fixture from the encapsulated components to thereby expose the electrical contacts of the components, wherein the containment means, the encapsulated components and the sticky coating are firstly removed from the release material as a complete unit, after which the sticky coating is peeled off the encapsulated components; vi) interconnecting the electrical contacts of the components to provide an interconnected structure; vii) optionally placing additional components in electrical contact with the components interconnected in step vi); wherein step vi) is optionally preceded by a step of inverting the encapsulated components assembly and placing said assembly on a support fixture. i) providing a placement fixture comprising a rigid base having a sticky coating on one surface thereof and including a layer of release material interposed between said rigid base and said sticky coating; ii) placing a plurality of electronic components (6.1, 6.2, 11) at least some of which include electric contacts, on said sticky coating in a desired pattern; iii) placing a containment means (7,95) on said sticky coating, said containment means at least partially enclosing the components; iv) (a) dispensing sufficient encapsulant into the containment means to thereby at least partially encapsulate at least some of the components; or (b) dispensing a first quantity of encapsulant sufficient on solidification to maintain the components in position, and dispensing a second quantity of encapsulant sufficient to provide structural integrity to the placed components; v) separating, using a two-step removal process, the placement fixture from the encapsulated components to thereby expose the electrical contacts of the components, wherein the containment means, the encapsulated components and the sticky coating are firstly removed from the release material as a complete unit, after which the sticky coating is peeled off the encapsulated components; vi) interconnecting the electrical contacts of the components to provide an interconnected structure; vii) optionally placing additional components in electrical contact with the components interconnected in step vi);
A system for identifying or monitoring the orientation and position of a downhole drilling device, such as a directional core barrel drill or wedge, the system comprising an orientation unit including a reference point member connected to an outer body element, and an inner body element arranged inside the outer body element, characterized in that - wherein the inner body element is retrievable, and - the inner body element is fully or partially enclosing at least a first and second detector, the first detector is essentially centrically positioned with respect to the inner element and at any time sensing, directly or indirectly, the rotational position of the reference point member, the second detector sensing earth gravity, the system further including: - a processor adapted to retrieve collected data from said first detector and said second detector, using said data for calculating and determining the rotational orientation of the fixed reference point member relative to earth gravity, - a device(s) for using data provided by the processor as input to identify, control and/or adjust the position of the downhole drilling device or a deflection mechanism of the device. - wherein the inner body element is retrievable, and - the inner body element is fully or partially enclosing at least a first and second detector, the first detector is essentially centrically positioned with respect to the inner element and at any time sensing, directly or indirectly, the rotational position of the reference point member, the second detector sensing earth gravity, - a processor adapted to retrieve collected data from said first detector and said second detector, using said data for calculating and determining the rotational orientation of the fixed reference point member relative to earth gravity, - a device(s) for using data provided by the processor as input to identify, control and/or adjust the position of the downhole drilling device or a deflection mechanism of the device.
A method of producing 1,3 butadiene using a continuous-flow dual bed reactor, comprising: a) charging the continuous-flow dual bed rector with a bismuth molybdate-based first catalyst and a ferrite-based second catalyst layer to form a first catalyst layer and a second catalyst layer such that a quartz layer is disposed between the first and second catalyst layers to separate the first and second catalyst layers; b) passing a reactant including a C4 mixture containing n-butene, air and steam through the catalyst layers of the continuous-flow dual bed reactor to conduct an oxidative dehydrogenation reaction; and c) obtaining 1,3-butaidiene by the oxidative dehydrogenation reaction. a) charging the continuous-flow dual bed rector with a bismuth molybdate-based first catalyst and a ferrite-based second catalyst layer to form a first catalyst layer and a second catalyst layer such that a quartz layer is disposed between the first and second catalyst layers to separate the first and second catalyst layers; b) passing a reactant including a C4 mixture containing n-butene, air and steam through the catalyst layers of the continuous-flow dual bed reactor to conduct an oxidative dehydrogenation reaction; and c) obtaining 1,3-butaidiene by the oxidative dehydrogenation reaction.
A method of transmitting a signal, the method comprising: mapping encoded service data to symbols; interleaving the mapped symbols; and building a signal frame including the interleaved symbols; transmitting the signal frame via at least one radio frequency, RF, channel, wherein the transmitted signal frame includes a first pilot signal and a second pilot signal, wherein the first pilot signal indicates a fast Fourier transform, FFT, size of the second pilot signal and at least one guard interval length information matched with the FFT size, wherein the second pilot signal includes layer 1 information that includes a guard interval length information and a frequency indicator which is frequency information of a radio frequency, RF, channel, wherein the second pilot signal is transmitted with the same FFT size and guard interval as the symbols in the signal frame, wherein the number of OFDM symbols in the second pilot signal is signaled by the first pilot signal, and wherein the second pilot signal includes information on the number of OFDM symbols for the service data. mapping encoded service data to symbols; interleaving the mapped symbols; and building a signal frame including the interleaved symbols; transmitting the signal frame via at least one radio frequency, RF, channel, wherein the transmitted signal frame includes a first pilot signal and a second pilot signal, wherein the first pilot signal indicates a fast Fourier transform, FFT, size of the second pilot signal and at least one guard interval length information matched with the FFT size, wherein the second pilot signal includes layer 1 information that includes a guard interval length information and a frequency indicator which is frequency information of a radio frequency, RF, channel, wherein the second pilot signal is transmitted with the same FFT size and guard interval as the symbols in the signal frame, wherein the number of OFDM symbols in the second pilot signal is signaled by the first pilot signal, and wherein the second pilot signal includes information on the number of OFDM symbols for the service data.
A wireless dock, the wireless dock comprising: peripheral ports to enable peripheral devices to connect to the wireless dock; and a wireless transmitter configured to transmit broadcast signals to enable mobile devices to detect the wireless dock and establish a wireless connection with the wireless dock to use the connected peripheral devices, the wireless dock configured to provide management information with the broadcast signals usable by the mobile devices to manage the wireless connection to, and experience with, the wireless dock, wherein the management information provided with the broadcast signals includes a group-identifier that associates the wireless dock with one or more other wireless docks that are configured with similar hardware capabilities. peripheral ports to enable peripheral devices to connect to the wireless dock; and a wireless transmitter configured to transmit broadcast signals to enable mobile devices to detect the wireless dock and establish a wireless connection with the wireless dock to use the connected peripheral devices, the wireless dock configured to provide management information with the broadcast signals usable by the mobile devices to manage the wireless connection to, and experience with, the wireless dock, wherein the management information provided with the broadcast signals includes a group-identifier that associates the wireless dock with one or more other wireless docks that are configured with similar hardware capabilities.