mhurhangee/ep-ind-claims huggingface dataset:
Electrical cooking appliance, in particular a fryer, including a tank for receiving a cooking bath, an electrical heating device in order to heat the tank and/or the cooking bath, and a cooking accessory arranged in the tank to carry the food to be cooked, with the cooking accessory including a perforated basket and a removable insert including a perforated cooking support, with the insert including two opposite support members (22; 23) resting on an upper edge of the basket when the cooking support is arranged in the basket, with each support member (22; 23) being extended by a gripping member (24; 25) extending at a distance from the basket when the cooking support is arranged in the basket, characterised in that each gripping member (24; 25) rises above the level of the upper edge of the basket when the cooking support is arranged in the basket.
A method comprising steps of: (a) providing an article comprised, at least in part, of a martensitic stainless steel, wherein the martensitic stainless steel consists of: 0.02-0.50 wt% C, 0.1-1.5 wt% Mn, 0.10-2.0 wt% Si, 8.0-20.0 wt% Cr, 1.0-3.5 wt% Ni, 0.40-3.0 wt% Mo, 0.40-2.0 wt% V, 1.0-10.0 wt% Co, the balance being Fe; or 0.03-0.10 wt% C, 0.5-1.0 wt% Mn, 0.20-0.6 wt% Si, 11.0-15.0 wt% Cr, 2.40-3.0 wt% Ni, 1.50-2.0 wt% Mo, 0.40-0.80 wt% V, 5.0-6.0 wt% Co, the balance being Fe, and wherein the martensitic stainless steel contains the following weight percentages of elements: Mo + V = 0.8 to 4.0 wt % and Co + Ni = 2.0 to 12.0 wt %. (b) carburizing the article within a temperature range of 885 °C - 916 °C, and (c) then carbo-nitriding the article within a temperature range of 857 °C - 885 °C, wherein carbon and nitrogen are simultaneously introduced into the case of the stainless steel, thereby producing a case-hardened martensitic stainless steel article. (a) providing an article comprised, at least in part, of a martensitic stainless steel, wherein the martensitic stainless steel consists of: 0.02-0.50 wt% C, 0.1-1.5 wt% Mn, 0.10-2.0 wt% Si, 8.0-20.0 wt% Cr, 1.0-3.5 wt% Ni, 0.40-3.0 wt% Mo, 0.40-2.0 wt% V, 1.0-10.0 wt% Co, the balance being Fe; or 0.03-0.10 wt% C, 0.5-1.0 wt% Mn, 0.20-0.6 wt% Si, 11.0-15.0 wt% Cr, 2.40-3.0 wt% Ni, 1.50-2.0 wt% Mo, 0.40-0.80 wt% V, 5.0-6.0 wt% Co, the balance being Fe, and wherein the martensitic stainless steel contains the following weight percentages of elements: Mo + V = 0.8 to 4.0 wt % and Co + Ni = 2.0 to 12.0 wt %. 0.02-0.50 wt% C, 0.1-1.5 wt% Mn, 0.10-2.0 wt% Si, 8.0-20.0 wt% Cr, 1.0-3.5 wt% Ni, 0.40-3.0 wt% Mo, 0.40-2.0 wt% V, 1.0-10.0 wt% Co, the balance being Fe; or 0.03-0.10 wt% C, 0.5-1.0 wt% Mn, 0.20-0.6 wt% Si, 11.0-15.0 wt% Cr, 2.40-3.0 wt% Ni, 1.50-2.0 wt% Mo, 0.40-0.80 wt% V, 5.0-6.0 wt% Co, the balance being Fe, and wherein the martensitic stainless steel contains the following weight percentages of elements: Mo + V = 0.8 to 4.0 wt % and Co + Ni = 2.0 to 12.0 wt %. (b) carburizing the article within a temperature range of 885 °C - 916 °C, and (c) then carbo-nitriding the article within a temperature range of 857 °C - 885 °C, wherein carbon and nitrogen are simultaneously introduced into the case of the stainless steel, thereby producing a case-hardened martensitic stainless steel article.
Filling level indicator for determining a filling level in a tank, having a resistor network which is arranged on a carrier substrate, having a contact element, and having a magnetic element, wherein the contact element is arranged adjacent to the resistor network and the magnetic element is movable relative to the resistor network and the contact element, wherein the contact element has a contact region and the magnetic element is movable in the region of the contact region such that the contact region can be deflected by the magnetic element, wherein an electrically conductive connection between the contact region and the resistor network can be produced by means of the deflection of the contact region, wherein the contact element has an attachment region adjacent to the contact region, characterized in that the contact element is formed in one piece, in that the attachment region is connected directly to the carrier substrate, in that the contact region is formed spaced apart from the resistor network and the carrier substrate, and in that the contact region and the attachment region are arranged so as to be offset with respect to one another in a stepped manner.
A composition comprising at least one long chain polyunsaturated fatty acid (LC-PUFA), at least one probiotic and a mixture of oligosaccharides, said mixture containing at least one N-acetylated oligosaccharide, at least one sialylated oligosaccharide and at least one neutral oligosaccharide, for use in the promotion of healthy bone growth and/or in the prevention and/or treatment of bone disease, preferably osteomalacia, rickets, osteopenia or osteoporosis.
Wind turbine comprising: - a plurality of blades ( 5a,5b,5c) and - means for converting movement of said plurality of blades ( 5a,5b,5c) in electric energy; wherein each blade of said plurality ( 5a,5b,5c) includes a corresponding antenna ( 6a,6b,6c), and wherein said wind turbine further comprises a transmitter circuit for feeding at least one antenna with a signal to be radiated, and further comprises a switching unit connected between said transmitter circuit and the antennas ( 6a,6b,6c) comprised in said plurality of blades ( 5a,5b,5c), wherein said switching unit is adapted to dynamically connect one or more of said antennas ( 6a,6b,6c) to said transmitter circuit, said wind turbine being characterized in that said switching unit is adapted to connect to a reference potential the antennas ( 6a,6b,6c) of said plurality which are not connected to the transmitter circuit. - a plurality of blades ( 5a,5b,5c) and - means for converting movement of said plurality of blades ( 5a,5b,5c) in electric energy;
Method for the operation of a reducing agent supply system for the supply of an exhaust treatment apparatus of a motor vehicle with a reducing agent for exhaust emission control, wherein an air stream and a reducing agent stream are supplied to a nozzle device opening into an exhaust pipe, characterised in that - in a normal metering operation of the reducing agent supply system, an at least approximately continuous air stream and a pulsed reducing agent stream are generated and at least partially fed into the exhaust pipe via the nozzle device, and - in a cleaning operation for cleaning the reducing agent supply system, an air stream formed from a number of air stream pulses and a reducing agent stream formed from an number of reducing agent stream pulses are generated and fed to the nozzle device. - in a normal metering operation of the reducing agent supply system, an at least approximately continuous air stream and a pulsed reducing agent stream are generated and at least partially fed into the exhaust pipe via the nozzle device, and - in a cleaning operation for cleaning the reducing agent supply system, an air stream formed from a number of air stream pulses and a reducing agent stream formed from an number of reducing agent stream pulses are generated and fed to the nozzle device.
A method of wireless communication at a user equipment, UE, comprising: receiving a very low duty cycle signal, LDCS, configuration for a low power node, LPN (806a; 806b), from a second entity; monitoring for an LDCS from the LPN (806a; 806b) based on the received LDCS configuration; receiving an LDCS from a plurality of low power nodes, LPNs (806a; 806b), based on the received LDCS configurations from the second entity, wherein the LDCS for each of the LPNs (806a; 806b) comprises at least one of backhaul quality information and loading capability information for the corresponding LPN (806a; 806b); determining a buffer status at the UE; and determining whether to access any of the plurality of LPNs (806a; 806b) based on at least one of the received backhaul quality information and the loading capability information for the corresponding LPN (806a; 806b) in combination with the determined buffer status of the UE. receiving a very low duty cycle signal, LDCS, configuration for a low power node, LPN (806a; 806b), from a second entity; monitoring for an LDCS from the LPN (806a; 806b) based on the received LDCS configuration; receiving an LDCS from a plurality of low power nodes, LPNs (806a; 806b), based on the received LDCS configurations from the second entity, wherein the LDCS for each of the LPNs (806a; 806b) comprises at least one of backhaul quality information and loading capability information for the corresponding LPN (806a; 806b); determining a buffer status at the UE; and determining whether to access any of the plurality of LPNs (806a; 806b) based on at least one of the received backhaul quality information and the loading capability information for the corresponding LPN (806a; 806b) in combination with the determined buffer status of the UE.
Coupling or plug of a plug connection, wherein the coupling or the plug has first latching means by means of which, with the plug connection assembled, a first latching (primary locking) between the coupling and plug occurs, and wherein the coupling or the plug has a locking element which can be fitted to the coupling or the plug and is longitudinally displaceable in the plugging direction between a pre-latching position and an end latching position, wherein the locking element is designed in such a way that it is displaceable into the end latching position only when the plug is situated completely in the coupling (or vice versa), wherein the locking element is arranged on the first latching means, characterized in that there is provided a cross-web arrangement having two cross-webs (161, 162) which extend parallel to one another and which together form an aperture for a latching lug of the locking element, wherein the locking element has a front region with two steps (22, 23) and the latching means have a cross-web.
A synchronous serial peripheral device comprising: a transmission unit coupled with a data output line and a clock unit coupled with a clock line, a transfer buffer coupled with the transmission unit, wherein the serial peripheral device is configured to transmits a minimum of a single data transmission consisting of a number of transmission bits, wherein upon receiving data in the transfer buffer, in a first operating mode the transmission unit and the clock unit are configurable to perform a data transmission with a data length that can be defined to be less than 8 bits, wherein the single transmission consists of a number of bits less than 8 bits which are transmitted on the data line and an associated number of clock pulses transmitted on the clock line, wherein the transfer buffer is a FIFO memory coupled with the transmission unit, wherein the peripheral device is further configurable to operate in a second operating mode in which a transmission consists of a transmission frame comprising a plurality of 8-bit words from the FIFO memory followed by a single data transmission word from the FIFO memory having a data length that can be defined to be less than eight bit, a finite state machine controlling a clock signal transmitted on the clock line and a byte counter and a bit counter controlling the finite state machine, wherein a special function register is programmable to control the peripheral device to operate in the first or second operating mode,. a transmission unit coupled with a data output line and a clock unit coupled with a clock line, a transfer buffer coupled with the transmission unit, wherein the serial peripheral device is configured to transmits a minimum of a single data transmission consisting of a number of transmission bits, wherein upon receiving data in the transfer buffer, in a first operating mode the transmission unit and the clock unit are configurable to perform a data transmission with a data length that can be defined to be less than 8 bits, wherein the single transmission consists of a number of bits less than 8 bits which are transmitted on the data line and an associated number of clock pulses transmitted on the clock line, wherein the transfer buffer is a FIFO memory coupled with the transmission unit, wherein the peripheral device is further configurable to operate in a second operating mode in which a transmission consists of a transmission frame comprising a plurality of 8-bit words from the FIFO memory followed by a single data transmission word from the FIFO memory having a data length that can be defined to be less than eight bit, a finite state machine controlling a clock signal transmitted on the clock line and a byte counter and a bit counter controlling the finite state machine, wherein a special function register is programmable to control the peripheral device to operate in the first or second operating mode,.
A method identifying brain tumor-derived microparticles from a subject for analysis, the method comprising: - providing a sample comprising bodily fluid from a subject; - isolating one or more microparticles from the sample; and identifying, using a Tenascin-C specific reagent, one or more microparticles having Tenascin-C protein on the surface from the one or more isolated microparticles, thereby identifying brain tumor-derived microparticles. - providing a sample comprising bodily fluid from a subject; - isolating one or more microparticles from the sample; and identifying, using a Tenascin-C specific reagent, one or more microparticles having Tenascin-C protein on the surface from the one or more isolated microparticles, thereby identifying brain tumor-derived microparticles.
A method for managing communication over a network with a traffic management device that is operative to perform actions, comprising: determining subscriber information for at least one subscriber that is associated with a network flow, the subscriber information including historical subscriber information identifying applications associated with the subscriber; generating prediction information based at least on the historical subscriber information, wherein the prediction information includes at least one application identifier; employing a classification engine to determine at least one application associated with the network flow based on the at least one application identifier of the prediction information and the network flow, wherein the classification engine provides at least one of a plurality of application classifiers that corresponds to the at least one application; when the prediction information's at least one application identifier is correspondent to the at least one application classifier, determining the at least one application based on the at least one correspondent application classifier; when the prediction information's at least one application identifier is non-correspondent to the at least one application classifier, determining the at least one application based on at least one remainder of the plurality of application classifiers; determining at least one policy for managing the network flow based on the at least one determined application; and communicating the network flow to another entity based on the at least one determined policy. determining subscriber information for at least one subscriber that is associated with a network flow, the subscriber information including historical subscriber information identifying applications associated with the subscriber; generating prediction information based at least on the historical subscriber information, wherein the prediction information includes at least one application identifier; employing a classification engine to determine at least one application associated with the network flow based on the at least one application identifier of the prediction information and the network flow, wherein the classification engine provides at least one of a plurality of application classifiers that corresponds to the at least one application; when the prediction information's at least one application identifier is correspondent to the at least one application classifier, determining the at least one application based on the at least one correspondent application classifier; when the prediction information's at least one application identifier is non-correspondent to the at least one application classifier, determining the at least one application based on at least one remainder of the plurality of application classifiers; determining at least one policy for managing the network flow based on the at least one determined application; and communicating the network flow to another entity based on the at least one determined policy.
Method for manufacturing a turbine engine blade comprising a pressure side wall and a suction side wall separated from one another by an inner space for the circulation of cooling air, this blade comprising a tip with a closing wall joining the pressure side and suction side walls in the region of this tip in order to define a well shape, this closing wall comprising through-holes (38, 39), with the method comprising a step of moulding implementing a core delimiting the shape as a well and alumina rods (31, 32) delimiting each through-hole (38, 39), a chemical etching operation of the core and a chemical etching operation of the alumina rods (31, 32) in order to remove this core and these rods after moulding, characterised in that the core is provided with bosses at each through-hole (38, 39) in order to confer upon the closing wall such as obtained by moulding a nominal thickness greater than the thickness of the other walls of the blade and a reduced thickness (d) at each through-hole (38, 39), and in that the method comprises an operation of machining the closing wall in order to form a raised pattern or patterns at the bottom of the well.
A linear motor that has a tubular body and a rod that penetrates the tubular body in an axial direction, and is configured to displace the tubular body and the rod relative to each other in the axial direction, comprising: a plurality of teeth arranged in the axial direction so as to project from an inner peripheral surface of the tubular body; slots formed between adjacent teeth of the plurality of teeth; a plurality of coils disposed in the slots; and permanent magnets provided in the rod and arranged in the axial direction so as to oppose the coils, wherein the plurality of coils are constituted by a plurality of first phase coils (30, V), a plurality of second phase coils (30, W), and a plurality of third phase coils (30, U), a three-phase alternating current being passed through the first, second, and third phase coils (30, V, W, U), the first, second, and third phase coils (30, V, W, U) are provided in the axial direction such that the first phase coil (30, V1) and the second phase coil (30, W6) are disposed respectively in the two slots positioned at respective ends the tubular body, characterized in that a total number of coil windings of the third phase coils (30, U) is set to be smaller than a total number of coil windings of the first phase coils (30, V) and a total number of coil windings of the second phase coils (30, W), and the respective numbers of coil windings of the two third phase coils (30, U1, U6) disposed near the respective ends of the tubular body are set to be smaller than respective numbers of coil windings of the other third phase coils (30, U). a plurality of teeth arranged in the axial direction so as to project from an inner peripheral surface of the tubular body; slots formed between adjacent teeth of the plurality of teeth; a plurality of coils disposed in the slots; and permanent magnets provided in the rod and arranged in the axial direction so as to oppose the coils, wherein the plurality of coils are constituted by a plurality of first phase coils (30, V), a plurality of second phase coils (30, W), and a plurality of third phase coils (30, U), a three-phase alternating current being passed through the first, second, and third phase coils (30, V, W, U), the first, second, and third phase coils (30, V, W, U) are provided in the axial direction such that the first phase coil (30, V1) and the second phase coil (30, W6) are disposed respectively in the two slots positioned at respective ends the tubular body, characterized in that a total number of coil windings of the third phase coils (30, U) is set to be smaller than a total number of coil windings of the first phase coils (30, V) and a total number of coil windings of the second phase coils (30, W), and the respective numbers of coil windings of the two third phase coils (30, U1, U6) disposed near the respective ends of the tubular body are set to be smaller than respective numbers of coil windings of the other third phase coils (30, U).
A synthesis method for making an isocyanate based organic xerogel thereby avoiding or reducing gel shrinkage during the solvent removal step, said method comprises at least the following steps: a) Providing a polyisocyanate composition, and b) Providing an isocyanate reactive composition which is selected from the group of aliphatic and aromatic monoamine/polyamine compounds, aromatic and aliphatic polyether and/or polyester monool/polyol compounds and mixtures thereof, and c) Optionally providing at least one catalyst compound promoting a polyurethane and/or polyurea and/or polyisocyanurate formation (trimerization), and d) Providing an organic non-reactive (towards isocyanates) solvent composition, and e) Optionally providing further additives, and then f) Combining compositions/compounds a), d) and optionally b) and/or c) and/or e) to form a gel comprising a porous cross-linked polyurethane and/or polyurea and/or polyisocyanurate network (having pores filled with solvent at this stage), this step referred to as "gelling" step, and then g) Optionally removing unreacted species, and then h) Exchanging the organic solvent with water, and then i) Drying the porous network under subcritical conditions in order to remove the water and obtain the isocyanate based organic xerogel (gas-filled pores, e.g. with air). a) Providing a polyisocyanate composition, and b) Providing an isocyanate reactive composition which is selected from the group of aliphatic and aromatic monoamine/polyamine compounds, aromatic and aliphatic polyether and/or polyester monool/polyol compounds and mixtures thereof, and c) Optionally providing at least one catalyst compound promoting a polyurethane and/or polyurea and/or polyisocyanurate formation (trimerization), and d) Providing an organic non-reactive (towards isocyanates) solvent composition, and e) Optionally providing further additives, and then f) Combining compositions/compounds a), d) and optionally b) and/or c) and/or e) to form a gel comprising a porous cross-linked polyurethane and/or polyurea and/or polyisocyanurate network (having pores filled with solvent at this stage), this step referred to as "gelling" step, and then g) Optionally removing unreacted species, and then h) Exchanging the organic solvent with water, and then i) Drying the porous network under subcritical conditions in order to remove the water and obtain the isocyanate based organic xerogel (gas-filled pores, e.g. with air).