mhurhangee/ep-ind-claims huggingface dataset:
A bicycle with an electronic device for monitoring operations or properties of the bicycle or a component attached to the bicycle, the electronic device comprising: a housing (201/202) configured to mount to a top tube of the bicycle so that a portion of the housing (201/202) is within the top tube when the housing (201/202) is mounted to the bicycle, the housing (201/202) comprising no more than two user input elements (220/222) configured to receive user inputs; a spring positioned on the portion and configured to press against an inner surface of the top tube to secure the housing (201/202) to the top tube; a wireless interface supported by the housing (201/202) and configured wirelessly communicate with other devices; a connector supported by the housing (201/202) and configured to receive data indicative of the operations or the properties of the bicycle or the component attached to the bicycle; a processor positioned in the housing (201/202), the processor being configured to: monitor the operations or the properties to determine status information, and store at least some of the data to a memory device; and a display supported by the housing (201/202) and configured to present the status information without using alphanumeric characters, wherein the display does not comprise a liquid-crystal display. a housing (201/202) configured to mount to a top tube of the bicycle so that a portion of the housing (201/202) is within the top tube when the housing (201/202) is mounted to the bicycle, the housing (201/202) comprising no more than two user input elements (220/222) configured to receive user inputs; a spring positioned on the portion and configured to press against an inner surface of the top tube to secure the housing (201/202) to the top tube; a wireless interface supported by the housing (201/202) and configured wirelessly communicate with other devices; a connector supported by the housing (201/202) and configured to receive data indicative of the operations or the properties of the bicycle or the component attached to the bicycle; a processor positioned in the housing (201/202), the processor being configured to: monitor the operations or the properties to determine status information, and store at least some of the data to a memory device; and a display supported by the housing (201/202) and configured to present the status information without using alphanumeric characters, wherein the display does not comprise a liquid-crystal display. monitor the operations or the properties to determine status information, and store at least some of the data to a memory device; and a display supported by the housing (201/202) and configured to present the status information without using alphanumeric characters, wherein the display does not comprise a liquid-crystal display.
A process for the preparation of bis-(2-hydroxyethyl)-disulfide by oxidizing 2-mercaptoethanol with oxygen in a reaction mixture comprising at least one homogeneously distributed iron comprising salt or complex as catalyst and at least one tertiary amine.
An optical fiber preform manufacturing method comprising: a thermal diffusion process for oxidizing and thermally diffusing an alkali metal element into the inner side of a silica glass pipe, the glass pipe being heated with a heat source performing relative movement in the longitudinal direction of the glass pipe, while vapors of alkali metal salt generated by heating an alkali metal salt are supplied with a carrier gas to the inside of the glass pipe from an end thereof; a collapsing process for forming a core rod by collapsing the glass pipe after the thermal diffusion process; and a cladding process for adding a cladding part around the circumference of the core rod, wherein in the thermal diffusion process, at the start of the thermal diffusion of the alkali metal element into the inner side of the glass pipe, the alkali metal salt is heated at a temperature for making the vapor pressure of the alkali metal salt to be 0.1 kPa or less, and thereafter, during heating of the glass pipe by a heat source, the alkali metal salt is heated to a temperature for making the vapor pressure of the alkali metal salt to be larger than 0.1 kPa. a thermal diffusion process for oxidizing and thermally diffusing an alkali metal element into the inner side of a silica glass pipe, the glass pipe being heated with a heat source performing relative movement in the longitudinal direction of the glass pipe, while vapors of alkali metal salt generated by heating an alkali metal salt are supplied with a carrier gas to the inside of the glass pipe from an end thereof; a collapsing process for forming a core rod by collapsing the glass pipe after the thermal diffusion process; and a cladding process for adding a cladding part around the circumference of the core rod, wherein in the thermal diffusion process, at the start of the thermal diffusion of the alkali metal element into the inner side of the glass pipe, the alkali metal salt is heated at a temperature for making the vapor pressure of the alkali metal salt to be 0.1 kPa or less, and thereafter, during heating of the glass pipe by a heat source, the alkali metal salt is heated to a temperature for making the vapor pressure of the alkali metal salt to be larger than 0.1 kPa.
A cardiac function variation evaluation apparatus comprising: a power consuming continuous flow auxiliary artificial heart of the bypass type connectable to a left ventricle; a pressure sensor also connectable to the left ventricle for detecting ventricle internal pressure; means configured to evaluate the contractile variation of the left ventricle, to which the auxiliary artificial heart is connectable, by continuously monitoring the variation of the closed loop internal area (APM p) of a relationship between the ventricle internal pressure detected by the pressure sensor and power consumption of the auxiliary artificial heart obtained by multiplying a current wave of the motor and motor voltage of said auxiliary artificial heart. a power consuming continuous flow auxiliary artificial heart of the bypass type connectable to a left ventricle; a pressure sensor also connectable to the left ventricle for detecting ventricle internal pressure; means configured to evaluate the contractile variation of the left ventricle, to which the auxiliary artificial heart is connectable, by continuously monitoring the variation of the closed loop internal area (APM p) of a relationship between the ventricle internal pressure detected by the pressure sensor and power consumption of the auxiliary artificial heart obtained by multiplying a current wave of the motor and motor voltage of said auxiliary artificial heart.
A network node for a wireless communication system, the network node comprising: a processor configured to determine a resource indicator, the resource indicator comprising a single resource allocation value indicative of a first start index and a first number of frequency resource blocks; and a transceiver configured to transmit a transmission grant comprising the resource indicator to a user device, wherein the first start index and the first number of frequency resource blocks are configured to be used for allocating a first set of contiguous frequency resources within a first sub-band and a corresponding first set of contiguous frequency resources within a second sub-band, and wherein the first sub-band and the second sub-band are non-overlapping; characterized in that the allocation of the first set of contiguous frequency resources within the first sub-band is identical to the allocation of the corresponding first set of contiguous frequency resources within the second sub-band. a processor configured to determine a resource indicator, the resource indicator comprising a single resource allocation value indicative of a first start index and a first number of frequency resource blocks; and a transceiver configured to transmit a transmission grant comprising the resource indicator to a user device, wherein the first start index and the first number of frequency resource blocks are configured to be used for allocating a first set of contiguous frequency resources within a first sub-band and a corresponding first set of contiguous frequency resources within a second sub-band, and wherein the first sub-band and the second sub-band are non-overlapping; characterized in that the allocation of the first set of contiguous frequency resources within the first sub-band is identical to the allocation of the corresponding first set of contiguous frequency resources within the second sub-band.
A picocrystalline oxysilaborane or silaborane solid compound consisting essentially of the chemical elements of boron, silicon, hydrogen and optionally oxygen wherein boron is present at a higher atomic concentration than the other elements, wherein the compound has a stoichiometric composition of: (B 12 H w) x Si y O z, with 3 ≤ w ≤ 5; 2 ≤ x ≤ 3; 2 ≤ y ≤ 5; and 0 ≤ z ≤ 3.
A capillary electrophoresis electrospray ionization mass spectrometry system (100, 200) comprising: a capillary electrophoresis high voltage power supply (102, 202) having an output (122, 222) for providing a CE delivered current and an input (124, 224) for receiving a CE return current; a mass spectrometry power supply (104, 204) that connects to a current sense input (178, 278) of a current sense circuit (143, 243); an inlet electrode (141, 241); a separation capillary (142, 242); a conductive fluid capillary (144, 244); and a return electrode (123, 223); characterized in that the current sense circuit (143, 243) is coupled to a MS power supply terminal, such that the MS power supply terminal is electrically coupled to the input (124, 224) of the CE high voltage power supply (102, 202) via the current sense circuit (143, 243), said conductive fluid capillary (144, 244), and said return electrode (123, 223), the MS power supply terminal is further electrically coupled to the output (122, 222) of the CE high voltage power supply (102, 202) via the current sense circuit (143, 243), said separation capillary (142, 242), and said inlet electrode (141, 241), and wherein a leakage current is detected by subtracting the CE return current, a sense current sensed by the current sense circuit (143, 243), and an offset current from the CE delivered current, wherein the offset current is associated with a system inaccuracy and is a recorded value stored in a CE controller of the capillary electrophoresis electrospray ionization mass spectrometry system. a capillary electrophoresis high voltage power supply (102, 202) having an output (122, 222) for providing a CE delivered current and an input (124, 224) for receiving a CE return current; a mass spectrometry power supply (104, 204) that connects to a current sense input (178, 278) of a current sense circuit (143, 243); an inlet electrode (141, 241); a separation capillary (142, 242); a conductive fluid capillary (144, 244); and a return electrode (123, 223); characterized in that the current sense circuit (143, 243) is coupled to a MS power supply terminal, such that the MS power supply terminal is electrically coupled to the input (124, 224) of the CE high voltage power supply (102, 202) via the current sense circuit (143, 243), said conductive fluid capillary (144, 244), and said return electrode (123, 223), the MS power supply terminal is further electrically coupled to the output (122, 222) of the CE high voltage power supply (102, 202) via the current sense circuit (143, 243), said separation capillary (142, 242), and said inlet electrode (141, 241), and wherein a leakage current is detected by subtracting the CE return current, a sense current sensed by the current sense circuit (143, 243), and an offset current from the CE delivered current, wherein the offset current is associated with a system inaccuracy and is a recorded value stored in a CE controller of the capillary electrophoresis electrospray ionization mass spectrometry system.
A negative electrode for an electric device, comprising a current collector and an electrode layer containing a negative electrode active material, an electrically-conductive auxiliary agent and a binder and formed on a surface of the current collector, wherein the negative electrode active material contains an alloy represented by the following formula: Si x Zn y M z A a in the formula, M is V, A is an inevitable impurity, and x, y, z and a represent mass percent values and satisfy conditions of 33≤x≤50, 0<y≤46, 21≤z≤67, 0≤a<0.5, and x+y+z+a=100, the binder contains a resin having an E elastic modulus measured in accordance with a tension test method prescribed in JIS K 7163 published in 1994 of 2.10 GPa or greater and 7.00 GPa or less, and a content of the resin having the E elastic modulus of greater than 1.00 Gpa and less than 7.40 Gpa with respect to 100% by mass of the binder is in the range from 50 to 100% by mass. in the formula, M is V, A is an inevitable impurity, and x, y, z and a represent mass percent values and satisfy conditions of 33≤x≤50, 0<y≤46, 21≤z≤67, 0≤a<0.5, and x+y+z+a=100, the binder contains a resin having an E elastic modulus measured in accordance with a tension test method prescribed in JIS K 7163 published in 1994 of 2.10 GPa or greater and 7.00 GPa or less, and a content of the resin having the E elastic modulus of greater than 1.00 Gpa and less than 7.40 Gpa with respect to 100% by mass of the binder is in the range from 50 to 100% by mass.
A high manganese steel for low temperature applications, consisting of: 0.3 wt% to 0.8 wt% of C, 18 wt% to 26 wt% of Mn, 0.01 wt% to 1 wt% of Si, 0.01 wt% to 0.5 wt% of Al, 0.1 wt% or less of Ti excluding 0%, 1 wt% to 4.5 wt% of Cr, 0.1 wt% to 0.9 wt% of Cu, 0.03 wt% or less of S excluding 0%, 0.3 wt% or less of P excluding 0%, 0.001 wt% to 0.03 wt% of N, 0.004 wt% or less of B excluding 0%, and a remainder of Fe and other inevitable impurities, wherein a microstructure comprises an austenite single phase structure, an average grain size of the austenite is 20 μm to 50 μm, a number of an austenite grain having a grain size of 50 μm or more is less than 1 per cm 2, wherein the high manganese steel further comprises 1 volume% or less including 0% of a precipitate, wherein the high manganese steel has thickness direction impact toughness of 60 J or higher at -196°C, and wherein the high manganese steel has yield strength of 400 MPa or higher. 0.3 wt% to 0.8 wt% of C, 18 wt% to 26 wt% of Mn, 0.01 wt% to 1 wt% of Si, 0.01 wt% to 0.5 wt% of Al, 0.1 wt% or less of Ti excluding 0%, 1 wt% to 4.5 wt% of Cr, 0.1 wt% to 0.9 wt% of Cu, 0.03 wt% or less of S excluding 0%, 0.3 wt% or less of P excluding 0%, 0.001 wt% to 0.03 wt% of N, 0.004 wt% or less of B excluding 0%, and a remainder of Fe and other inevitable impurities, wherein a microstructure comprises an austenite single phase structure, an average grain size of the austenite is 20 μm to 50 μm, a number of an austenite grain having a grain size of 50 μm or more is less than 1 per cm 2, wherein the high manganese steel further comprises 1 volume% or less including 0% of a precipitate, wherein the high manganese steel has thickness direction impact toughness of 60 J or higher at -196°C, and wherein the high manganese steel has yield strength of 400 MPa or higher.
A method for measuring the location of a movable communication device with respect to a three non-coplanar axis position system (X, Y, Z) defined by a beacon system including a beacon processor and the following elements in fixed position with respect to each other: ∘ A main transmitter placed at the origin of the non-coplanar axis position system (X, Y, Z); ∘ A main receiver placed at the origin of the non-coplanar axis position system (X, Y, Z); ∘ A first, a second, and a third axis-placed receivers, respectively, placed at the different axes (X, Y, Z) but not at the origin of the non-coplanar axis position system (X, Y, Z), the method comprising: - Performing the following communication procedure: ∘ Transmitting a first signal from the main transmitter under the control of the beacon processor; ∘ Detecting the first signal by the movable communication device; ∘ In response to the first signal detection, transmitting a second signal from the movable communication device; and ∘ Detecting the second signal by the main receiver and the first, second, and third axis-placed receivers under the control of the beacon processor; - Determining, under the control of the beacon processor, the location of the movable communication device using time of flight, ToF, measurements of the first and of the second signals (41, 42), wherein both the first and second signals (41, 42) are transmitted using orthogonal codes and are detected using matched filters. ∘ A main transmitter placed at the origin of the non-coplanar axis position system (X, Y, Z); ∘ A main receiver placed at the origin of the non-coplanar axis position system (X, Y, Z); ∘ A first, a second, and a third axis-placed receivers, respectively, placed at the different axes (X, Y, Z) but not at the origin of the non-coplanar axis position system (X, Y, Z), - Performing the following communication procedure: ∘ Transmitting a first signal from the main transmitter under the control of the beacon processor; ∘ Detecting the first signal by the movable communication device; ∘ In response to the first signal detection, transmitting a second signal from the movable communication device; and ∘ Detecting the second signal by the main receiver and the first, second, and third axis-placed receivers under the control of the beacon processor; ∘ Transmitting a first signal from the main transmitter under the control of the beacon processor; ∘ Detecting the first signal by the movable communication device; ∘ In response to the first signal detection, transmitting a second signal from the movable communication device; and ∘ Detecting the second signal by the main receiver and the first, second, and third axis-placed receivers under the control of the beacon processor; - Determining, under the control of the beacon processor, the location of the movable communication device using time of flight, ToF, measurements of the first and of the second signals (41, 42),
Sensing assembly for sensing a temperature, at least comprising - one measuring insert for sensing a temperature, wherein the measuring insert has a rod like form in which at least one sensor element (7a,7b,8) in the form of a temperature probe is arranged - one, preferably pre-formed, fitting (10a-10c) at least partially surrounding the measuring insert, - one protective tube, wherein the measuring insert and the pre-formed fitting (10a-10c) are positioned within an inner cavity of the protective tube such that an intermediate chamber is formed, and - gas conduit means comprising at least a gas-inlet and a gas-outlet both at least connected to the intermediate chamber, wherein at least the intermediate chamber can be purged by means of a purging gas via the gas conduit means, characterized in that the sensing assembly comprises at least one adsorbing unit, which is at least partially comprised of a getter material, and positioned at least partially surrounding the measuring insert. - one measuring insert for sensing a temperature, wherein the measuring insert has a rod like form in which at least one sensor element (7a,7b,8) in the form of a temperature probe is arranged - one, preferably pre-formed, fitting (10a-10c) at least partially surrounding the measuring insert, - one protective tube, wherein the measuring insert and the pre-formed fitting (10a-10c) are positioned within an inner cavity of the protective tube such that an intermediate chamber is formed, and - gas conduit means comprising at least a gas-inlet and a gas-outlet both at least connected to the intermediate chamber, wherein at least the intermediate chamber can be purged by means of a purging gas via the gas conduit means,
Use of a reciprocating hose pump in a filling device comprising a container, which is filled, at least in part, with the material to be filled in, and has at least one opening and one filling element having at least one filling connector, wherein a line that runs between an opening of the container and the filling element is structured as a hose at least in certain sections, and has the reciprocating hose pump on this hose section, which pump has a carriage that can be moved in the longitudinal direction of the hose, on which carriage a rotatable roller is attached, wherein the carriage can be moved cyclically along the hose in opposite directions, wherein the hose is squeezed between the roller and a stop, at least part of the time, during movement of the carriage in the first direction, in that the roller or the stop is pressed against the hose by means of a setting apparatus, and is not squeezed between the roller and the stop during movement in the second direction, characterized in that a self-curing, mineral insulation foam is conveyed into cavities of a construction material or component using the reciprocating hose pump, wherein the conveyed volume is controlled during a movement of the roller from the starting point to the end point along the longitudinal direction of the hose, in that the hose is squeezed only in a partial region of this movement, by turning on the setting device.
A computer-implemented method of aligning RNA comprising: receiving onto a data storage unit a plurality of primer sequences and a plurality of transcript sequences transcribable from a reference genome; analyzing, using a microprocessor, the plurality of primer sequences to determine a plurality of target sequences amplifiable from the plurality of transcript sequences by the plurality of primer sequences; generating, using a microprocessor, a modified reference genome based on the plurality of target sequences, wherein the modified reference genome comprises the plurality of target sequences and excludes sequences not amplifiable from the plurality of transcript sequences by the plurality of primer sequences; aligning, using a microprocessor, sequence reads generated from a test sample comprising RNA amplicon molecules to the modified reference genome, wherein the RNA amplicon molecules are generated by amplifying RNA sequences in the test sample using primers having sequences of the plurality of primer sequences; and generating an alignment profile for the test sample based on the aligning. receiving onto a data storage unit a plurality of primer sequences and a plurality of transcript sequences transcribable from a reference genome; analyzing, using a microprocessor, the plurality of primer sequences to determine a plurality of target sequences amplifiable from the plurality of transcript sequences by the plurality of primer sequences; generating, using a microprocessor, a modified reference genome based on the plurality of target sequences, wherein the modified reference genome comprises the plurality of target sequences and excludes sequences not amplifiable from the plurality of transcript sequences by the plurality of primer sequences; aligning, using a microprocessor, sequence reads generated from a test sample comprising RNA amplicon molecules to the modified reference genome, wherein the RNA amplicon molecules are generated by amplifying RNA sequences in the test sample using primers having sequences of the plurality of primer sequences; and generating an alignment profile for the test sample based on the aligning.