mhurhangee/ep-ind-claims huggingface dataset:
A fuel cell system comprising: a reforming unit configured to subject a mixed gas containing a raw gas and steam to a reforming reaction by a reforming catalyst, thereby generating a reformed gas containing hydrogen; a carbon monoxide decreasing unit (10, 11, 30, 32) configured to allow the reformed gas generated by the reforming unit to contact a carbon monoxide decreasing catalyst (10a, 11 a), thereby decreasing carbon monoxide contained in the reformed gas; a fuel cell configured to generate electric power by hydrogen contained in the reformed gas passed through the carbon monoxide decreasing unit; a burner unit configured to burn at least one of an off-gas containing hydrogen not consumed in the fuel cell, the raw gas and the reformed gas using combustion air supplied by an air blower; a raw gas supply device configured to supply the raw gas to the reforming unit and the burner unit directly or through the reforming unit; and a control unit, characterized in that at a start-up operation of the fuel cell system, the control unit is configured to adjust and control an amount of raw gas supplied from the raw gas supply device according to an amount of a desorbed raw gas desorbed out of components of the raw gas adsorbed to at least one of the reforming catalyst and the carbon monoxide decreasing catalyst (10a, 11 a) such that a ratio of an amount of the combustion air to an amount of the raw gas in the burner unit falls within a predetermined range whereby the combustion air and the raw gas is supplied to and burnt in the burner unit such that a stable combustion is performed. a reforming unit configured to subject a mixed gas containing a raw gas and steam to a reforming reaction by a reforming catalyst, thereby generating a reformed gas containing hydrogen; a carbon monoxide decreasing unit (10, 11, 30, 32) configured to allow the reformed gas generated by the reforming unit to contact a carbon monoxide decreasing catalyst (10a, 11 a), thereby decreasing carbon monoxide contained in the reformed gas; a fuel cell configured to generate electric power by hydrogen contained in the reformed gas passed through the carbon monoxide decreasing unit; a burner unit configured to burn at least one of an off-gas containing hydrogen not consumed in the fuel cell, the raw gas and the reformed gas using combustion air supplied by an air blower; a raw gas supply device configured to supply the raw gas to the reforming unit and the burner unit directly or through the reforming unit; and a control unit, characterized in that at a start-up operation of the fuel cell system, the control unit is configured to adjust and control an amount of raw gas supplied from the raw gas supply device according to an amount of a desorbed raw gas desorbed out of components of the raw gas adsorbed to at least one of the reforming catalyst and the carbon monoxide decreasing catalyst (10a, 11 a) such that a ratio of an amount of the combustion air to an amount of the raw gas in the burner unit falls within a predetermined range whereby the combustion air and the raw gas is supplied to and burnt in the burner unit such that a stable combustion is performed.
Auxiliary drive for a training machine, which comprises a first force measuring device, a control device and a drive unit, characterized in that the control device is configured to determine a setpoint force (F S,max), the first force measuring device is configured to determine an actual force (F S) which is applied to a main traction means and which is substantially caused by an acceleration of a movable mass which is connected to the main traction means, and wherein the first force measuring device is further configured to transmit the determined actual force (F S) to the control device, the control device is further configured to compare the actual force (F S) with the setpoint force (F S,max) and to control the drive unit in such a way that, if the actual force (F S) exceeds the setpoint force (F S,max), an auxiliary force (F Z) which has a component counter to an acceleration due to gravity acts on the movable mass as a result of a connection of the drive unit to the movable mass. the control device is configured to determine a setpoint force (F S,max), the first force measuring device is configured to determine an actual force (F S) which is applied to a main traction means and which is substantially caused by an acceleration of a movable mass which is connected to the main traction means, and wherein the first force measuring device is further configured to transmit the determined actual force (F S) to the control device, the control device is further configured to compare the actual force (F S) with the setpoint force (F S,max) and to control the drive unit in such a way that, if the actual force (F S) exceeds the setpoint force (F S,max), an auxiliary force (F Z) which has a component counter to an acceleration due to gravity acts on the movable mass as a result of a connection of the drive unit to the movable mass.
A terminal fitting, comprising: a main portion extending substantially in forward and backward directions and having a base wall portion, first and second lateral wall portions (12, 13) projecting at an angle different from 0° or 180° from opposite lateral ends of the base wall portion and an upper wall portion, wherein the upper wall portion has a double wall structure comprised of an inner wall portion at least partly arranged at the inner side of the main portion and an outer wall portion at least partly arranged at the outer side of the main portion, and at least one stabilizer which can guide an inserting operation of the main portion by being at least partly inserted into an insertion groove formed in an inner surface of a cavity formed in a connector housing when the main portion is at least partly inserted into the cavity, wherein: the stabilizer is formed integral to or unitary with the second lateral wall portion and the inner wall portion, the stabilizer extends outwardly from a distal end edge of the second lateral wall portion and has a folded portion to extend toward the lateral edge of the inner wall portion, and the inner wall portion has a locking portion at its end edge opposite to the stabilizer, wherein the locking portion is at least partly inserted into a locking hole, which is formed in a part connecting the outer wall portion and the first lateral wall portion. a main portion extending substantially in forward and backward directions and having a base wall portion, first and second lateral wall portions (12, 13) projecting at an angle different from 0° or 180° from opposite lateral ends of the base wall portion and an upper wall portion, wherein the upper wall portion has a double wall structure comprised of an inner wall portion at least partly arranged at the inner side of the main portion and an outer wall portion at least partly arranged at the outer side of the main portion, and at least one stabilizer which can guide an inserting operation of the main portion by being at least partly inserted into an insertion groove formed in an inner surface of a cavity formed in a connector housing when the main portion is at least partly inserted into the cavity, the stabilizer is formed integral to or unitary with the second lateral wall portion and the inner wall portion, the stabilizer extends outwardly from a distal end edge of the second lateral wall portion and has a folded portion to extend toward the lateral edge of the inner wall portion, and the inner wall portion has a locking portion at its end edge opposite to the stabilizer, wherein the locking portion is at least partly inserted into a locking hole, which is formed in a part connecting the outer wall portion and the first lateral wall portion.
An elevator communication system comprising: a first elevator controller; a second elevator controller communicatively connected to the first elevator controller; a first ethernet bus portion (106A, 162A) connected to the first elevator controller, the first ethernet bus portion comprising sequential bus segments interconnected by at least one switch (108A-108C), the first ethernet bus portion extending in a first elevator shaft; a second ethernet bus portion (106B, 162B) connected to the second elevator controller, the second ethernet bus portion comprising sequential bus segments interconnected by at least one switch (110A-110C), the second ethernet bus portion extending in a second elevator shaft; and at least one elevator system node (112A, 112B, 120A, 120B, 122A, 122B, 150A-150I, 156A-156I, 160A-160L) communicatively connected to the first elevator controller via the first ethernet bus portion (106A, 162A) and to the second elevator controller via the second ethernet bus portion (106B, 162B). a first elevator controller; a second elevator controller communicatively connected to the first elevator controller; a first ethernet bus portion (106A, 162A) connected to the first elevator controller, the first ethernet bus portion comprising sequential bus segments interconnected by at least one switch (108A-108C), the first ethernet bus portion extending in a first elevator shaft; a second ethernet bus portion (106B, 162B) connected to the second elevator controller, the second ethernet bus portion comprising sequential bus segments interconnected by at least one switch (110A-110C), the second ethernet bus portion extending in a second elevator shaft; and at least one elevator system node (112A, 112B, 120A, 120B, 122A, 122B, 150A-150I, 156A-156I, 160A-160L) communicatively connected to the first elevator controller via the first ethernet bus portion (106A, 162A) and to the second elevator controller via the second ethernet bus portion (106B, 162B).
A thermal sublimation paper for printing with inks containing a sublimable dye, especially with inkjet inks, wherein a porous hydrophilic thermal transfer layer for printing is formed on a porous base paper, characterized in that in the thermal transfer layer there are thermoplastic particles with a particle size of 0.3 to 5 μm and a melting point of 35°C to 190°C as well as hydrophilic monomers, oligomers or polymers, wherein the thermal transfer layer contains 5 to 65 wt.% thermoplastic particles.
Device for fixing a cable-routing duct to a wall, comprising a carrier that is provided with a first part to be fixed to said wall and with a second part that is capable of supporting said duct, and locking means for fixing said duct to said carrier, characterised in that said second part of said carrier comprises at least one cambered portion that defines a channel on the inside thereof, said cambered portion being pierced by apertures that are mutually spaced along the length of said cambered portion and that define therebetween cambered projections (121 A) that protrude above a support face of said second part of the carrier, and in that said locking means (200; 200') comprise a locking element (210; 210') that is intended to be longitudinally engaged in said channel for insertion between the base of said duct, which is supported on said support face of said second part of the carrier by engaging in at least some apertures in said cambered portion, and at least two of said cambered projections (121 A), in order to immobilise said duct on said carrier.
A computer-implemented method for identifying that a first radar unit (102A-D) of frequency-modulated continuous-wave, FMCW, type is subject to parallel incoherent interference from a second radar unit (102A-D) of FMCW type, comprising: acquiring a range-Doppler map corresponding to a time frame in which the first radar unit (102A-D) was activated to transmit and receive signals (108, 110), wherein the range-Doppler map includes signal values for a plurality of range intervals and a plurality of Doppler shifts, characterized by: calculating a range-resolved signal (138, 140) for a negative half and a positive half of the range-Doppler map, wherein the negative half and the positive half of the range-Doppler map correspond to negative and positive Doppler shifts, respectively, calculating a range-dependent noise profile for the range-Doppler map as, for each range interval, the smaller of the range-resolved signal for the negative half and the positive half, identifying parallel incoherent interference in the range-Doppler map if a measure (ΔL) of a deviation between the range-resolved signal (138, 140) for the negative half and the positive half is smaller than a predetermined deviation threshold, and a measure (ΔG) of a difference between the range-dependent noise profile and a global noise floor of the range-Doppler map exceeds a predetermined noise threshold. calculating a range-resolved signal (138, 140) for a negative half and a positive half of the range-Doppler map, wherein the negative half and the positive half of the range-Doppler map correspond to negative and positive Doppler shifts, respectively, calculating a range-dependent noise profile for the range-Doppler map as, for each range interval, the smaller of the range-resolved signal for the negative half and the positive half, identifying parallel incoherent interference in the range-Doppler map if a measure (ΔL) of a deviation between the range-resolved signal (138, 140) for the negative half and the positive half is smaller than a predetermined deviation threshold, and a measure (ΔG) of a difference between the range-dependent noise profile and a global noise floor of the range-Doppler map exceeds a predetermined noise threshold. a measure (ΔL) of a deviation between the range-resolved signal (138, 140) for the negative half and the positive half is smaller than a predetermined deviation threshold, and a measure (ΔG) of a difference between the range-dependent noise profile and a global noise floor of the range-Doppler map exceeds a predetermined noise threshold.
A process for the manufacture of a lozenge dosage form, wherein the lozenge dosage form comprises: a fast disintegrative tablet portion; and a candy glass shell portion containing a reservoir that holds the fast disintegrative portion; wherein the fast disintegrative tablet portion comprises at least one pharmaceutically active ingredient; and wherein the process comprises: making the candy glass shell portion in one step and allowing it to cool to ambient temperature; and either (a) adding a hot material blend containing the fast disintegrative tablet portion to the candy glass shell portion and allowing it to cool; or (b) creating a deformable plug or tablet containing the fast disintegrative tablet portion; adding the deformable plug to the candy glass shell portion; and adding pressure and/or heat to the deformable plug to fill in a predefined space within the candy glass shell portion; or (c) adding a portion of powder containing the fast disintegrative tablet portion to a predefined space within the candy glass shell portion; and sealing in place. a fast disintegrative tablet portion; and a candy glass shell portion containing a reservoir that holds the fast disintegrative portion; wherein the fast disintegrative tablet portion comprises at least one pharmaceutically active ingredient; and wherein the process comprises: making the candy glass shell portion in one step and allowing it to cool to ambient temperature; and either (a) adding a hot material blend containing the fast disintegrative tablet portion to the candy glass shell portion and allowing it to cool; or (b) creating a deformable plug or tablet containing the fast disintegrative tablet portion; adding the deformable plug to the candy glass shell portion; and adding pressure and/or heat to the deformable plug to fill in a predefined space within the candy glass shell portion; or (c) adding a portion of powder containing the fast disintegrative tablet portion to a predefined space within the candy glass shell portion; and sealing in place. (a) adding a hot material blend containing the fast disintegrative tablet portion to the candy glass shell portion and allowing it to cool; or (b) creating a deformable plug or tablet containing the fast disintegrative tablet portion; adding the deformable plug to the candy glass shell portion; and adding pressure and/or heat to the deformable plug to fill in a predefined space within the candy glass shell portion; or adding the deformable plug to the candy glass shell portion; and adding pressure and/or heat to the deformable plug to fill in a predefined space within the candy glass shell portion; or (c) adding a portion of powder containing the fast disintegrative tablet portion to a predefined space within the candy glass shell portion; and sealing in place.
System comprising a power device and a portable device, wherein the portable device comprises a battery and the power device is configured to wireless charge the battery of the portable device, wherein the the power device comprises a first antenna configured to emit a magnetic field and the portable device comprises a portable antenna exposed to the magnetic field and connected to a charge stage configured to rectify an antenna signal from the portable antenna and configured to provide a charge voltage (Ui) configured to charge the battery, the power device comprises a second antenna realized identical to the first antenna and arranged at a distance from the first antenna and on the same coil axis as the first antenna and configured to generate a Helmholtz magnetic field, and the power device further comprises a first power amplifier and a second power power amplifier, characterized in that the first power amplifier directly connected to the first antenna and the second power amplifier directly connected to the second antenna are realized identical and on the same substrate, wherein the first power amplifier and the second power amplifier are realized in CMOS residing on the same monolithic silicon substrate and operating at low voltages of 3,6V.
A method of controlling a printing apparatus which is adapted to perform printing by using a printhead having a printing element and a storage unit or a printhead having a printing element and supporting an ink tank (H1900; H1901 to H1904) having a storage unit, the printing apparatus including a first control unit which is adapted to control overall operation of the printing apparatus, and a second control unit which is adapted to operate independently of the first control unit, characterized by comprising: an instruction generation step of causing the first control unit to generate a control instruction for acquiring specific information from information held by the storage unit; an acquisition step (S101 to S106) of causing the second control unit to receive the control instruction generated by the first control unit in the instruction generation step, generate an address for accessing the storage unit, access the storage unit at the address, and acquire the specific information corresponding to the control instruction from the storage unit; and a control step (S108, S109) of causing the second control unit to drive and control the printhead on the basis of information which is generated on the basis of the information acquired in the acquisition step in order to drive the printhead. an instruction generation step of causing the first control unit to generate a control instruction for acquiring specific information from information held by the storage unit; an acquisition step (S101 to S106) of causing the second control unit to receive the control instruction generated by the first control unit in the instruction generation step, generate an address for accessing the storage unit, access the storage unit at the address, and acquire the specific information corresponding to the control instruction from the storage unit; and a control step (S108, S109) of causing the second control unit to drive and control the printhead on the basis of information which is generated on the basis of the information acquired in the acquisition step in order to drive the printhead.
Cellulosic nanofilaments comprising: a length of at least 100 μm, and a width of about 30 to about 300 nm, wherein the nanofilaments are physically detached from each other, and are substantially free of fibrillated cellulose, wherein the nanofilaments have an apparent freeness value of over 700 ml according to Paptac Standard Testing Method Cl, wherein a suspension comprising 1% w/w nanofilaments in water at 25°C under a shear rate of 100s -1 has a viscosity greater than 100 cps. a length of at least 100 μm, and a width of about 30 to about 300 nm, wherein the nanofilaments are physically detached from each other, and are substantially free of fibrillated cellulose, wherein the nanofilaments have an apparent freeness value of over 700 ml according to Paptac Standard Testing Method Cl, wherein a suspension comprising 1% w/w nanofilaments in water at 25°C under a shear rate of 100s -1 has a viscosity greater than 100 cps.
Respiratory apparatus comprising a sensor and a respiratory mask, the respiratory mask comprising a mask body having an enclosing wall that defines an interior cavity, and the sensor having a transmitter of electromagnetic radiation and a receiver of electromagnetic radiation, wherein the enclosing wall has a sensor portion including first and second sensor windows, a portion of the interior cavity being defined between the first and second sensor windows, and the sensor being mounted relative to the sensor portion of the respiratory mask, such that electromagnetic radiation from the transmitter is transmitted, in use, through the first window of the sensor portion of the enclosing wall, through the portion of the interior cavity defined between the first and second windows, through the second window, to the receiver, wherein the respiratory mask further comprises an inspiratory gas inlet port for delivering inspiratory gas to the wearer, and the sensor portion is spaced from the inspiratory gas inlet port.