mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing omecamtiv mecarbil free base comprising (a) admixing methyl 4-(3-amino-2-fluorobenzyl)piperazine-1-carboxylate triphosgene, and a trialkylamine in acetonitrile and tetrahydrofuran to form PIPA isocyanate; and (b) admixing the PIPA isocyanate and 5-amino-2-methylpyridine to form omecamtiv mecarbil free base (a) admixing methyl 4-(3-amino-2-fluorobenzyl)piperazine-1-carboxylate triphosgene, and a trialkylamine in acetonitrile and tetrahydrofuran to form PIPA isocyanate; and (b) admixing the PIPA isocyanate and 5-amino-2-methylpyridine to form omecamtiv mecarbil free base
Composition which is suitable for producing rigid polyurethane foams and comprises at least one lecithin, at least one urethane and/or isocyanurate catalyst, at least one blowing agent, at least one isocyanate component and at least one polyol component, characterized in that the mass ratio of lecithin to polyol component is less than 2.5:100 and hydrocarbons having from 3 to 5 carbon atoms are present as blowing agents.
A method for configuring a communication channel for a radio transmission within a cellular network between a user equipment and a base station, wherein the communication channel is divided into subframes, wherein the cellular network comprises a further base station, wherein the further base station is adapted to use a further communication channel, wherein the further communication channel is divided into subframes, wherein a first part of the subframes of the communication channel is associated in time with a first part of the subframes of the further communication channel, which is unscheduled by the further base station due to a predefined muting pattern, and wherein a second part of the subframes of the communication channel is associated in time with a second part of the subframes of the further communication channel, which is scheduled by the further base station, the method comprising determining, by the base station, a first quality information being indicative for a quality of the first part of the subframes of the communication channel and a second quality information being indicative for a quality of the second part of the subframes of the communication channel, receiving, by the base station, a feedback information from the user equipment being indicative for the quality of the communication channel, determining a first compensation value based on the first quality information and the feedback information, wherein the compensation value is adapted for compensating a difference between the first quality information and the feedback information, and a second compensation value based on the second quality information and the feedback information, wherein the compensation value is adapted for compensating a difference between the second quality information and the feedback information, adjusting the feedback information based on the determined first compensation value and based on the determined second compensation value, and configuring the communication channel based on the adjusted feedback information.
A spatial-multiplexed signal detection method wherein, in a soft-input soft-output detection method in spatial and temporal multiplexed signal separation, a factorization process is included for implementing factorization of conditional probability referred to as "likelihood" that is obtained for a signal sequence that is received when a spatial-multiplexed transmission sequence is assumed to have been transmitted such that the conditional probability p(Z/X) can be represented as the product of a plurality of conditional probabilities p(Z 1 /X)*p(Z 2 /X)*... of combinations of elements (x 1, x 2,...) of the transmission sequence; the conditional probabilities for which factorization is possible are divided into a plurality of groups (p(Z nT,...Z m); p(Z m-1,...,Z 2); p(Z 1)); when calculating the likelihoods, an ordering can be established among said groups for which probabilities are calculated such that the groups that include events that are transmission sequences that have been estimated in advance by simplified estimation as conditions of the conditional probabilities in said groups are processed earlier; and when calculating probabilities in the groups, a metric operation method is used that uses semi-rings for estimating transmission sequences by means of the ratio of the likelihoods of two exclusive events.
Cassette for insertion into an opening of a wall of a blow moulding part (2, 3) of a blow mould for stretch blow moulding a PET container with a handle mount for a handle which can be clipped in after the stretch blow moulding, wherein the handle mount comprises at least one undercut in the PET container for receiving a complementary handle element, and wherein the cassette comprises the following: - a cassette housing - at least one moulding element, which is arranged within the cassette housing and can be fed out of the cassette housing and return into the cassette housing through an opening in the cassette housing, for moulding the at least one undercut in thermoplastically mouldable wall material of a PET container, and - at least one fluid cylinder arranged within the cassette housing and mechanically coupled to the at least one moulding element, wherein the at least one moulding element can be at least partially fed out of the cassette housing and returned into the cassette housing by the fluid cylinder, wherein the cassette comprises two shaping elements and two fluid cylinders, each fluid cylinder being mechanically connected to only one associated shaping element in each case, characterised in that the two fluid cylinders are arranged with their longitudinal axes at an angle to the respective associated moulding element and with their longitudinal axes crossing each other. - a cassette housing - at least one moulding element, which is arranged within the cassette housing and can be fed out of the cassette housing and return into the cassette housing through an opening in the cassette housing, for moulding the at least one undercut in thermoplastically mouldable wall material of a PET container, and - at least one fluid cylinder arranged within the cassette housing and mechanically coupled to the at least one moulding element, wherein the at least one moulding element can be at least partially fed out of the cassette housing and returned into the cassette housing by the fluid cylinder, wherein the cassette comprises two shaping elements and two fluid cylinders, each fluid cylinder being mechanically connected to only one associated shaping element in each case, characterised in that the two fluid cylinders are arranged with their longitudinal axes at an angle to the respective associated moulding element and with their longitudinal axes crossing each other.
A radome for an antenna comprising a reflector dish, said radome comprising: a composite of an isotropic outer layer and a structural layer of foam material; and a retaining element configured to protect a periphery of the structural layer and to couple said periphery of the structural layer to a retaining flange of the reflector dish of the antenna; wherein the retaining element is provided with an s-shaped cross section forming a radially inwardly facing choke groove and a radially outwardly facing choke groove, wherein the composite is dimensioned for enclosing an open end of the antenna, and wherein the isotropic outer layer extends around an outer diameter of the structural layer. a composite of an isotropic outer layer and a structural layer of foam material; and a retaining element configured to protect a periphery of the structural layer and to couple said periphery of the structural layer to a retaining flange of the reflector dish of the antenna; wherein the retaining element is provided with an s-shaped cross section forming a radially inwardly facing choke groove and a radially outwardly facing choke groove, wherein the composite is dimensioned for enclosing an open end of the antenna, and wherein the isotropic outer layer extends around an outer diameter of the structural layer.
A method of reducing a pre-response having energy at a pre-response frequency, the method comprising the step of filtering a digital audio signal using a digital non-minimum-phase filter (P1, P2) having a z-transform response that includes a zero lying outside the unit circle, wherein the zero is selected to create a greater group delay at the pre-response frequency than at a frequency of 0 Hz.
Method for breakdown of toxic organic compounds contained in wastewaters and/or waste gases whereby the wastewaters and/or waste gases loaded with toxic organic compounds are first fed into an aqueous, basic, alkali/alkaline earth solution/suspension bath for destabilization of the toxic organic compounds, characterized by the fact that, the solution/suspension bath containing the destabilized toxic organic compounds is then introduced in ascending fashion to a capillary mass arranged above it, formed from processed pulps and peat mixed with bentonite, zeolite and/or lime with a particle size <200 μm.
An electrolytic treatment device having • an anodic compartment comprising a chromium free etching solution as anolyte and immersed therein an anode, • a cathodic compartment comprising a cathodic solution comprising an inorganic acid as catholyte and immersed therein a cathode, • a membrane separating the anodic from the cathodic compartment wherein the anode, and optionally the cathode, consist(s) of a ternary or higher Pb alloy with Sn and at least one further metal selected from the group consisting of Sb, Ag, Co, Bi, and combinations thereof, characterised in that the chromium free etching solution consists of • 47-74 wt% of at least one inorganic acid, • 0.01-5 wt% of at least one periodate salt, • 0.01-0.5 wt% of at least one manganese containing salt, • 0.01-5 wt% of at least one iodate salt, and • water up to 100%. • an anodic compartment comprising a chromium free etching solution as anolyte and immersed therein an anode, • a cathodic compartment comprising a cathodic solution comprising an inorganic acid as catholyte and immersed therein a cathode, • a membrane separating the anodic from the cathodic compartment wherein the anode, and optionally the cathode, consist(s) of a ternary or higher Pb alloy with Sn and at least one further metal selected from the group consisting of Sb, Ag, Co, Bi, and combinations thereof, characterised in that the chromium free etching solution consists of • 47-74 wt% of at least one inorganic acid, • 0.01-5 wt% of at least one periodate salt, • 0.01-0.5 wt% of at least one manganese containing salt, • 0.01-5 wt% of at least one iodate salt, and • water up to 100%. • 47-74 wt% of at least one inorganic acid, • 0.01-5 wt% of at least one periodate salt, • 0.01-0.5 wt% of at least one manganese containing salt, • 0.01-5 wt% of at least one iodate salt, and • water up to 100%.
An inverter unit (3L, 3R) and a vehicle side connector for driving a motor for rotating a driving wheel of an electric vehicle, the inverter unit including control circuitry, characterized in that the vehicle side connector includes an electric vehicle-side left connector and an electric vehicle-side right connector, the inverter unit (3L, 3R) further includes an identification information acquiring portion (31, 34, 35, 37) adapted to detect different electrical signals respectively when the inverter unit is used as a left inverter unit for driving a left motor for rotating a left driving wheel of the electric vehicle and when the inverter unit is used as a right inverter unit for driving a right motor for rotating a right driving wheel of the electric vehicle, the identification information acquiring portion (31, 34, 35, 37) includes an identification signal generation line to which a predetermined voltage is applied and an inverter-side connector, one of the electric vehicle-side left connector and the electric vehicle-side right connector is connected to the inverter-side connector, one of the electric vehicle-side left connector and the electric vehicle-side right connector is formed so as to short-circuit between the identification signal generation line and a ground point such that, either when the electric vehicle-side left connector is connected to the inverter-side connector or when the electric vehicle-side right connector is connected to the inverter-side connector, the short-circuiting is achieved, the identification information acquiring portion (31, 34, 35, 37) detects a voltage on the identification signal generation line as the electrical signals, and based on the electrical signals, the control circuitry makes the left motor rotate forward in a first direction when the inverter unit is used as the left inverter unit and makes the right motor rotate forward in a second direction opposite to the first direction when the inverter unit is used as the right inverter unit.
A method for determining a charger, wherein the method is applied to an electronic device, and the method comprises: after a charge loop has been formed by the charger and the electronic device by using charge interfaces VBUS and GND, receiving, by the electronic device, charging current from the charger; detecting a charging current output from the charger a) after having output an instruction signal, wherein the instruction signal is used to instruct the charger to output a charging current based on preset amplitude values that are a sequence of variable current, or b) a preset moment after the charger and the electronic device have formed the charge loop; when amplitude values of the charging current are a sequence of variable current, quantifying the current sequence into a binary sequence; determining whether the quantified binary sequence is the same as a prestored binary sequence; and when the quantified binary sequence is different from the prestored binary sequence, outputting prompt information indicating that the charger is a non-standard configuration charger. after a charge loop has been formed by the charger and the electronic device by using charge interfaces VBUS and GND, receiving, by the electronic device, charging current from the charger; detecting a charging current output from the charger a) after having output an instruction signal, wherein the instruction signal is used to instruct the charger to output a charging current based on preset amplitude values that are a sequence of variable current, or b) a preset moment after the charger and the electronic device have formed the charge loop; a) after having output an instruction signal, wherein the instruction signal is used to instruct the charger to output a charging current based on preset amplitude values that are a sequence of variable current, or b) a preset moment after the charger and the electronic device have formed the charge loop; when amplitude values of the charging current are a sequence of variable current, quantifying the current sequence into a binary sequence; determining whether the quantified binary sequence is the same as a prestored binary sequence; and when the quantified binary sequence is different from the prestored binary sequence, outputting prompt information indicating that the charger is a non-standard configuration charger.
A system (202; 300) for treating a surface and applying adhesive to an already treated portion of the surface concurrently, the system (202; 300) comprising: surface treatment equipment (208; 308) configured to treat the surface (204; 302) of an elongated member (213; 306); adhesive application equipment (210; 310) configured to apply adhesive (206; 304) to the already treated portion of the surface (204; 302); and a common feed system (212; 312) for feeding the elongated member (213; 306) beneath the surface treatment equipment (208; 308) and the adhesive application equipment (210; 310) concurrently, wherein the common feed system comprises: drive equipment (216; 402) comprising a plurality of drive wheels (218; 404) configured to contact the elongated member (213; 306); and indexing equipment (230; 406) configured to center the elongated member (213; 306) beneath the surface treatment equipment (208; 308) and the adhesive application equipment (210; 310). surface treatment equipment (208; 308) configured to treat the surface (204; 302) of an elongated member (213; 306); adhesive application equipment (210; 310) configured to apply adhesive (206; 304) to the already treated portion of the surface (204; 302); and a common feed system (212; 312) for feeding the elongated member (213; 306) beneath the surface treatment equipment (208; 308) and the adhesive application equipment (210; 310) concurrently, wherein the common feed system comprises: drive equipment (216; 402) comprising a plurality of drive wheels (218; 404) configured to contact the elongated member (213; 306); and indexing equipment (230; 406) configured to center the elongated member (213; 306) beneath the surface treatment equipment (208; 308) and the adhesive application equipment (210; 310). drive equipment (216; 402) comprising a plurality of drive wheels (218; 404) configured to contact the elongated member (213; 306); and indexing equipment (230; 406) configured to center the elongated member (213; 306) beneath the surface treatment equipment (208; 308) and the adhesive application equipment (210; 310).
A vacuum packaging device, comprising: a vacuum packaging unit configured to vacuum-package a packaging sheet; and a cutting unit formed in the vacuum packaging unit to form a tearing notch on the packaging sheet, the cutting unit comprises, a cutting member configured to cut the packaging sheet to form the tearing notch (la); and a driving part installed in the vacuum packaging unit to be connected to the cutting member and move the cutting member to cut the packaging sheet, characterized in that, the vacuum packaging unit includes an externally exposed first supporting groove, the driving unit includes a pressing member with the cutting member mounted therein and installed in the first supporting groove to reciprocate to the packaging sheet, and when a pressing force is applied to the pressing member, the pressing member moves together with the cutting member so that the packaging sheet (l) is cut by the cutting member.
Installation for handling hollow bodies (2, 3) made of plastics material, which installation comprises: - a plurality of units for processing hollow bodies (2, 3), each of which units defines, for the hollow bodies (2, 3), a processing circuit extending between an entry point and an exit point; - a conveyor for distributing the hollow bodies (2, 3) to processing units, comprising a closed-loop track and a plurality of individual devices for gripping the hollow bodies (2, 3), which devices circulate on this track; in which installation: - the processing units are disposed around the periphery of the conveyor, - the conveyor comprises a control unit configured to make each individual gripping device move along the track independently; the conveyor defining, for each processing unit, a loading point where each hollow body (2, 3) is collected from a gripping device in order to be transferred to the processing unit and processed there, and an unloading point where each processed hollow body (2, 3) is transferred from the processing unit to a gripping device; this installation being characterized in that: one of the processing units of the installation is a bypassed processing unit, the installation comprising a bypass means designed such that a hollow body arriving at a loading point corresponding to a bypassed processing unit goes directly to the unloading point corresponding to said bypassed processing unit via a bypass route formed by that section of the conveyor that extends between the loading point and the unloading point of said bypassed processing unit; the bypass means is constituted by the fact that the control unit is designed to desynchronize the movement of the individual gripping devices in order to prevent transfer to said bypassed processing unit when the hollow body arrives at the loading point. - a plurality of units for processing hollow bodies (2, 3), each of which units defines, for the hollow bodies (2, 3), a processing circuit extending between an entry point and an exit point; - a conveyor for distributing the hollow bodies (2, 3) to processing units, comprising a closed-loop track and a plurality of individual devices for gripping the hollow bodies (2, 3), which devices circulate on this track; - the processing units are disposed around the periphery of the conveyor, - the conveyor comprises a control unit configured to make each individual gripping device move along the track independently; one of the processing units of the installation is a bypassed processing unit, the installation comprising a bypass means designed such that a hollow body arriving at a loading point corresponding to a bypassed processing unit goes directly to the unloading point corresponding to said bypassed processing unit via a bypass route formed by that section of the conveyor that extends between the loading point and the unloading point of said bypassed processing unit; the bypass means is constituted by the fact that the control unit is designed to desynchronize the movement of the individual gripping devices in order to prevent transfer to said bypassed processing unit when the hollow body arrives at the loading point.
A method of detecting fouling of a heat exchanger (61A, 62A, 63A) of a boiler, the method comprising: emitting first and second sprays of pressurized fluid from first and second nozzles of a sootblower element; the method characterized in the steps of generating a value indicative of one or more reactive forces created by impact of one or both of the first and second pressurized fluid sprays on the heat exchanger (61A, 62A, 63A) or one or more substantial deposits on the heat exchanger (61A, 62A, 63A) and translated back to the sootblower element through one or both of the first and second sprays of the pressurized fluid; and determining when a substantial deposit is on the heat exchanger (61A, 62A, 63A) indicating fouling based on the value. emitting first and second sprays of pressurized fluid from first and second nozzles of a sootblower element; the method characterized in the steps of generating a value indicative of one or more reactive forces created by impact of one or both of the first and second pressurized fluid sprays on the heat exchanger (61A, 62A, 63A) or one or more substantial deposits on the heat exchanger (61A, 62A, 63A) and translated back to the sootblower element through one or both of the first and second sprays of the pressurized fluid; and determining when a substantial deposit is on the heat exchanger (61A, 62A, 63A) indicating fouling based on the value.
Cut protection having a plurality of protective layers (21, 22, 23, 51, 52, 71), wherein a first protective layer (21, 51, 71) has a smooth, slippery surface (26, 46) at least on one side, and having a second protective layer, wherein the second protective layer lies on top of the smooth, slippery surface (26, 46), and wherein the second protective layer is made of an elastically stretchable material and can be displaced relative to the first protective layer (21, 51, 71) at least in sections, characterised in that the second protective layer is an outer protective layer, which forms the outer side of the cut protection.
Blade adapted to be used in a streaming engine or compressor, wherein the blade contains a lower part, an upper part and an anchor element (2, 2'), wherein the anchor element (2, 2') is located inside of the blade, and wherein the anchor element (2, 2') connects the lower part and the upper part, characterized in that the blade consists of two parts and the anchor element, wherein the two parts have been manufactured using additive manufacturing. the blade consists of two parts and the anchor element, wherein the two parts have been manufactured using additive manufacturing.