mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for processing an electrical signal modulated in amplitude shift keying, comprising a reduced envelope detector circuit, consisting of one resistor and two capacitors, for amplitude shift keying demodulating said signal and one or more digital components, wherein said circuit is coupled to a first port of a first one of said one or more digital components for providing a demodulated signal from said circuit to said first digital component, and wherein said circuit is further coupled to a second port of a second one of said one or more digital components, coupling said circuit to said second port provides to the circuit an electrical equivalent of a diode connected to a reference voltage, wherein a first node of said reduced envelope detector circuit is coupled to said first port of said first digital component, the electrical voltage at said first node being representative of the envelope of said electrical signal, and wherein a second node of said reduced envelope detector circuit is coupled to said second port of said second digital component, said second port being used to complete said reduced envelope detector circuit by providing the electrical equivalent of a diode coupled to the system ground reference point, the anode of said electrical equivalent of a diode being coupled to the system ground reference voltage and the cathode of said electrical equivalent of a diode being coupled to said second node, wherein said second port of said second digital component hosts a protective assembly that exhibits a diode-like voltage-current characteristics and wherein said reduced envelope detector circuit lacks a diode associated with said demodulating.
A zipper head comprising a pull tab, a pull body and an insurance member, wherein the pull body is provided with an upper bottom plate and a lower bottom plate, the upper bottom plate is provided with a rear rivet body group and a front rivet body group which are correspondingly arranged, the rear rivet body group and the front rivet body group form an installation cavity, the pull tab comprises a horizontal portion and a side post connected to the horizontal portion, the horizontal portion of the pull tab is provided in the installation cavity and is rotatable along an axis of the horizontal portion, and the insurance member is connected with the pull body and the pull tab to realize locking; and when the pull tab is rotated to a position where the pull tab is in contact with the front rivet body group, the front rivet body group is in contact with the side post of the pull tab to prevent the pull tab from turning over, wherein an inner end surface of the horizontal portion is provided with a first protrusion, and a distance between an upper surface of the first protrusion and the upper bottom plate is larger than a distance between an upper end surface of the front rivet body group inside the installation cavity and the upper bottom plate, characterized in that, a blocker for preventing the pull tab from rotating is provided on one side of the insurance member close to the front rivet body group, and the horizontal portion is provided with a second protrusion cooperating with the blocker. when the pull tab is rotated to a position where the pull tab is in contact with the front rivet body group, the front rivet body group is in contact with the side post of the pull tab to prevent the pull tab from turning over, wherein an inner end surface of the horizontal portion is provided with a first protrusion, and a distance between an upper surface of the first protrusion and the upper bottom plate is larger than a distance between an upper end surface of the front rivet body group inside the installation cavity and the upper bottom plate, characterized in that, a blocker for preventing the pull tab from rotating is provided on one side of the insurance member close to the front rivet body group, and the horizontal portion is provided with a second protrusion cooperating with the blocker.
A thin film device, comprising: a semiconducting material (140, 240) comprised of a solidified solution material, a first source region (170, 270); a first drain region (180, 280); a first gate (150a, 250a); a second gate (150b, 250b); a second source region (175a, 230a) disposed between the first source region and the first drain region; a second drain region (175a, 230a) disposed between the first source region and the first drain region, wherein the second drain region and the second source region coincide; a first channel region disposed between the first source region and the coinciding second source and second drain regions; a second channel region disposed between the first drain region and the coinciding second source and second drain regions; and a dielectric material (160, 260) disposed between the semiconductor and the first and second gates; characterised in that the first and second channel regions comprise the semiconducting material, and the semiconducting material is an organic semiconducting material. a semiconducting material (140, 240) comprised of a solidified solution material, a first source region (170, 270); a first drain region (180, 280); a first gate (150a, 250a); a second gate (150b, 250b); a second source region (175a, 230a) disposed between the first source region and the first drain region; a second drain region (175a, 230a) disposed between the first source region and the first drain region, wherein the second drain region and the second source region coincide; a first channel region disposed between the first source region and the coinciding second source and second drain regions; a second channel region disposed between the first drain region and the coinciding second source and second drain regions; and a dielectric material (160, 260) disposed between the semiconductor and the first and second gates; characterised in that the first and second channel regions comprise the semiconducting material, and the semiconducting material is an organic semiconducting material.
A braking apparatus for work machines comprising at least two brakes (10, 13, 11, 14) each having at least one braking circuit (9, 12), wherein the braking circuits (9, 12) can be actuated via at least one control valve (6, 7) each and the control valves (6, 7) can be controlled independently of one another; a processing unit by which the control valves (6, 7) can be controlled or regulated; an operating circuit via which the braking circuits (9, 12) can be controlled or regulated manually; and at least one pressure supply, wherein the at least two control valves (6, 7) are controlled or regulated under predetermined conditions by the processing unit, and wherein the at least two control valves (6, 7) are controlled or regulated under predetermined conditions by the processing unit, and wherein the operating circuit and the control valves (6, 7) are coupled to the at least two braking circuits (9, 12) via one respective shuttle valve (15, 16) each, characterized in that at least one further valve is connected upstream of the at least two control valves (6, 7), said further valve being a safety valve and controlling or regulating the inflow of hydraulic fluid from a hydraulic fluid source to the at least two control valves (6, 7), with the safety valve being able to be controlled or regulated by the processing unit.
A modular transmission kit for a motor vehicle, preferably a utility vehicle, comprising: a basic module which is configured for being connected in a driving manner to a drive unit, the basic module comprising a first transmission stage, which is preferably configured as a spur gear stage, a second transmission stage, which is preferably configured as a spur gear stage, and a shift unit for shifting between the first and second transmission stages (32, 34), wherein the basic module is installed once in the assembly of a first transmission and the basic module is installed at least twice in the assembly of a second transmission. a basic module which is configured for being connected in a driving manner to a drive unit, the basic module comprising a first transmission stage, which is preferably configured as a spur gear stage, a second transmission stage, which is preferably configured as a spur gear stage, and a shift unit for shifting between the first and second transmission stages (32, 34), wherein the basic module is installed once in the assembly of a first transmission and the basic module is installed at least twice in the assembly of a second transmission.
An in vitro method for generating T cell progenitors, comprising the step of exposing CD34+ cells in a medium in the presence of a Notch ligand immobilized on a support, said Notch ligand being the soluble domain of the Delta-like-4 ligand, fused to a Fc region of an IgG protein, and in the presence of a fragment of a fibronectin, said fragment comprising the RGDS and CS-1 patterns and a heparin-binding domain, wherein the exposure time of CD34+ cells to said Notch ligand in the presence of said fragment of a fibronectin is of less than 10 days, preferably is comprised between 3 and 8 days.
A service platform that is implemented by one or more computer(s), for managing a battery and its auxiliary equipment units, the platform comprising: • one or more micro-services (42, 44), each micro-service having a standardized generic structure comprising: ∘ a sub-service implementing a business function, each business function defining a specific role provided by the sub-service in the management of the battery and its auxiliary equipment units; ∘ a messaging sub-service; • a unified communication system for enabling the exchange of data and messages, wherein each micro-service further comprises at least one management function of the micro-service, one of the at least one management function of the micro-service being a management function of the configuration of the micro-service, wherein the unified communication system comprises: • the use of sockets for a communication inter-micro-service either local or via a TCP/IP network, this choice being configured by the management function of the micro-service. • one or more micro-services (42, 44), each micro-service having a standardized generic structure comprising: ∘ a sub-service implementing a business function, each business function defining a specific role provided by the sub-service in the management of the battery and its auxiliary equipment units; ∘ a messaging sub-service; ∘ a sub-service implementing a business function, each business function defining a specific role provided by the sub-service in the management of the battery and its auxiliary equipment units; ∘ a messaging sub-service; • a unified communication system for enabling the exchange of data and messages, wherein each micro-service further comprises at least one management function of the micro-service, one of the at least one management function of the micro-service being a management function of the configuration of the micro-service, wherein the unified communication system comprises: • the use of sockets for a communication inter-micro-service either local or via a TCP/IP network, this choice being configured by the management function of the micro-service. • the use of sockets for a communication inter-micro-service either local or via a TCP/IP network, this choice being configured by the management function of the micro-service.
A chemical mechanical polishing slurry composition comprising: a non-ionized, heat-activated nano-catalyst which releases electrons and holes by energy generated in a chemical mechanical polishing process; an abrasive; and an oxidizing agent, wherein the non-ionized, heat-activated nano-catalyst and the abrasive are different from each other, and the content of the non-ionized, heat-activated nano-catalyst is 0.00001 to 0.1 wt% based on the total weight of the chemical mechanical polishing slurry composition, wherein the non-ionized, heat-activated nano-catalyst is a transition metal silicide represented by MSi, wherein M is a transition metal. a non-ionized, heat-activated nano-catalyst which releases electrons and holes by energy generated in a chemical mechanical polishing process; an abrasive; and an oxidizing agent, wherein the non-ionized, heat-activated nano-catalyst and the abrasive are different from each other, and the content of the non-ionized, heat-activated nano-catalyst is 0.00001 to 0.1 wt% based on the total weight of the chemical mechanical polishing slurry composition, wherein the non-ionized, heat-activated nano-catalyst is a transition metal silicide represented by MSi, wherein M is a transition metal.
Method for synchronizing an idler gear before coupling of same on a secondary shaft of a parallelshaft gearbox containing at least one primary shaft connected to a drive source of a vehicle, at least one secondary shaft carrying the idler gear for transmitting the torque from the drive source to the wheels of the vehicle at a transmission ratio and at least one means of coupling the idler gear to the shaft of same having no mechanical synchronization members, according to which the drive source is controlled, before coupling, at a speed imposing on it a speed differential with respect to the synchronization speed thereof at the transmission ratio which is to be engaged, characterized in that the speed differential is determined as a function of the quantity of energy absorbed by the vehicle at the time of coupling in response to the disappearance of this differential.
A battery module, comprising a liquid-tight housing; a plurality of battery cells arranged in the liquid-tight housing; and a first tempering fluid included in the liquid-tight housing in thermal contact with the plurality of battery cells and with a portion of an inner surface of the liquid-tight housing, such that heat generated by the plurality of battery cells is transferred to the liquid-tight housing via conduction or convection, wherein the liquid-tight housing is constructed to allow for a flow of a second tempering fluid between the portion of the inner surface and an outer surface of the liquid-tight housing, and the liquid-tight housing comprises a second fluid channel for the flow of the second tempering fluid; characterized in that the second fluid channel protrudes into an interior of the liquid-tight housing. a liquid-tight housing; a plurality of battery cells arranged in the liquid-tight housing; and a first tempering fluid included in the liquid-tight housing in thermal contact with the plurality of battery cells and with a portion of an inner surface of the liquid-tight housing, such that heat generated by the plurality of battery cells is transferred to the liquid-tight housing via conduction or convection, wherein the liquid-tight housing is constructed to allow for a flow of a second tempering fluid between the portion of the inner surface and an outer surface of the liquid-tight housing, and the liquid-tight housing comprises a second fluid channel for the flow of the second tempering fluid; characterized in that the second fluid channel protrudes into an interior of the liquid-tight housing.
A compound comprising an analgesic drug covalently linked to a first moiety via a physiologically labile covalent linker; wherein the first moiety is pregabalin, γ-aminobutyric acid (GABA), gabapentin, baclofen or vigabatrin; wherein the first moiety is covalently linked to the linker via an amino group or a carboxylic acidic group thereof, to a linker of the structure: wherein R 6 and R 7 are independently selected from the group consisting of hydrogen or alkyl.
An interferometric measurement system for measuring an optical fiber (1, 17), the optical fiber comprising multiple primary cores and an auxiliary core, the system comprising: interferometric detection circuitry configured to detect measurement interferometric pattern data associated with each of the multiple primary cores and the auxiliary core; and data processing circuitry configured to: determine a shape of the optical fiber based on the detected measurement interferometric pattern data for the multiple primary cores, determine a predicted phase or strain value of the auxiliary core based on the detected measurement interferometric pattern data for the multiple primary cores, determine a measurement-based phase or strain value of the auxiliary core based on the detected measurement interferometric pattern data for the auxiliary core; determine a difference between the predicted phase or strain value of the auxiliary core and the measurement-based phase or strain value of the auxiliary core, and detect an error associated with the determined shape of the optical fiber based on the difference. interferometric detection circuitry configured to detect measurement interferometric pattern data associated with each of the multiple primary cores and the auxiliary core; and data processing circuitry configured to: determine a shape of the optical fiber based on the detected measurement interferometric pattern data for the multiple primary cores, determine a predicted phase or strain value of the auxiliary core based on the detected measurement interferometric pattern data for the multiple primary cores, determine a measurement-based phase or strain value of the auxiliary core based on the detected measurement interferometric pattern data for the auxiliary core; determine a difference between the predicted phase or strain value of the auxiliary core and the measurement-based phase or strain value of the auxiliary core, and detect an error associated with the determined shape of the optical fiber based on the difference. determine a shape of the optical fiber based on the detected measurement interferometric pattern data for the multiple primary cores, determine a predicted phase or strain value of the auxiliary core based on the detected measurement interferometric pattern data for the multiple primary cores, determine a measurement-based phase or strain value of the auxiliary core based on the detected measurement interferometric pattern data for the auxiliary core; determine a difference between the predicted phase or strain value of the auxiliary core and the measurement-based phase or strain value of the auxiliary core, and detect an error associated with the determined shape of the optical fiber based on the difference.
Temperature-resistant aluminosilicate glass fibre, of the following composition: 52-60 wt.% SiO 2 14-16 wt.% Al 2 O 3 <0.4 wt.% Fe 2 O 3 0.03-0.3 wt.% Na 2 O 0.3-0.7 wt.% K 2 O 20-22 wt.% CaO 0.4-0.8 wt.% MgO 1-5 wt.% TiO 2 0.5-3 wt.% BaO 0-2 wt.% SrO 0-3 wt.% ZrO 2 0-1 wt.% CuO, wherein the overall proportion of the alkali metal oxides Na 2 O and K 2 O is in total no more than 1.0 wt.%, wherein the overall proportion of the oxides SrO, CuO, ZrO 2 is in a range between 0.1 and 4.0 wt.%, and wherein the temperature-resistant aluminosilicate glass fibre has a transformation temperature of >760°C and a fibre-forming temperature of <1260°C, wherein, after a temperature load of 760°C, the residual breaking strength of the temperature-resistant aluminosilicate glass fibre having a diameter in the range between 9 and 15 μm is in the range between 10% and 15% with respect to the starting breaking strength at room temperature.
Household appliance, in particular cooking appliance, with at least one connecting element for providing an electrical connection in a processing space of the household appliance, wherein the at least one connecting element is arranged on a side wall of the processing space, in particular cooking space, characterised in that - the connecting element comprises a protruding, longitudinally displaceable contact pin that can be displaced between a rest position protruding further and an operating position protruding less far, wherein the contact pin pushes into the rest position, and - the contact pin protrudes into the processing space, at least in its rest position. - the connecting element comprises a protruding, longitudinally displaceable contact pin that can be displaced between a rest position protruding further and an operating position protruding less far, wherein the contact pin pushes into the rest position, and - the contact pin protrudes into the processing space, at least in its rest position.
A landing bearing assembly for a rotary machine comprising a stator assembly, a rotor assembly and a magnetic bearing, the landing bearing assembly comprising a stator landing portion integral with the stator assembly and a rotor landing portion integral with the rotor assembly, a first coating (26, 36), which is an anti-wear and/or an anti-friction coating, is dispensed on the stator landing portion and the rotor landing portion, Characterized in that said first coating (26; 36) is made of alumines in a matrix of titanium and in that a sub-layer of nickel-aluminium alloy is first applied.
A photosensitive device comprising a semiconductor on an insulator substrate with at least a transistor (T 1) on said substrate, the substrate being provided with a surface semiconducting layer in which a channel zone, a source region, a drain region of said transistor are arranged, an insulating layer separating the surface semiconducting layer from a semiconducting support layer, the support layer comprising a photosensitive zone formed from regions doped with at least one first doping type, N or P, and at least one second doping type, P or N, so as to form at least one junction, the insulating layer being configured so as to enable capacitive coupling between the photosensitive zone and the transistor channel zone, the photosensitive zone comprising the following, among said doped regions (25, 27): - a first region doped with a first type of doping, the first doped region being arranged in contact with the insulating layer and facing the channel zone, - a second region doped with a second type of doping, the second doped region being arranged around the first doped region and extending in contact with the insulating layer and facing the source and drain regions of the transistor, the device being characterized in that said capacitive coupling is such that a potential variation as a result of receiving light radiation in the photosensitive zone, is such as to lead to a shift of threshold voltage (V T) of the transistor (T 1). an insulating layer separating the surface semiconducting layer from a semiconducting support layer, the support layer comprising a photosensitive zone formed from regions doped with at least one first doping type, N or P, and at least one second doping type, P or N, so as to form at least one junction, the insulating layer being configured so as to enable capacitive coupling between the photosensitive zone and the transistor channel zone, the photosensitive zone comprising the following, among said doped regions (25, 27): - a first region doped with a first type of doping, the first doped region being arranged in contact with the insulating layer and facing the channel zone, - a second region doped with a second type of doping, the second doped region being arranged around the first doped region and extending in contact with the insulating layer and facing the source and drain regions of the transistor, - a first region doped with a first type of doping, the first doped region being arranged in contact with the insulating layer and facing the channel zone, - a second region doped with a second type of doping, the second doped region being arranged around the first doped region and extending in contact with the insulating layer and facing the source and drain regions of the transistor, the device being characterized in that said capacitive coupling is such that a potential variation as a result of receiving light radiation in the photosensitive zone, is such as to lead to a shift of threshold voltage (V T) of the transistor (T 1).