mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for moving portions which each comprise at least one slice cut off from a food product, in particular by means of a slicing apparatus, in particular by means of a high-speed slicer, having a plurality of individually movable transport movers for the transport of portions; having a path system for the transport movers in which the transport movers are movable in a transport direction along at least one predefined path; and having a control device for controlling the movements of the transport movers in the path system, wherein the transport movers each comprise at least one rotor cooperating with the path system and at least one carrier for portions attached to the rotor, wherein a disposal device is provided for at least one part region of the path, in particular a part region at risk of contamination, and wherein the disposal device comprises a disposal apparatus which is provided in addition to the path and which is arranged above the part region of the path at least at times, which disposal device is configured to dispose of contaminants and/or incorrect portions originating from the foods, in particular on the slicing of the food products and/or on the handling of the portions, above the path and next to the part region at least at times, characterized in that the disposal device is provided in a transfer region in which portions move onto the transport movers; and in that the portions are transferred in the transfer region from an insertion apparatus, in particular configured as a conveyor belt, or from a slicing apparatus to the transport movers.
An active rectification system, comprising: an active rectifier; a pulse width modulation control portion, wherein the PWM control portion is configured to control switching of the active rectifier; and characterized by a closed loop vector control that is configured to detect a phase angle and frequency of an input source voltage (VS a, VS b, VS c), to transform three-phase input currents (i a, i b, i c) of the active rectifier into a d-current component and a q-current component by means of the detected phase angle, and to determine a q-component reference current as a function of a d-component reference current and d-q voltage components of input pole voltages (Vp a, Vp b, Vp c) of the active rectifier, wherein the closed loop vector control is configured to generate required duty cycles for PWM signals for the PWM control portion, the required duty cycles regulate the DC voltage output and force the three-phase input currents (i a, i b, i c) of the active rectifier to align with the input pole voltages (Vp a, Vp b, Vp c) of the active rectifier, which are determined from the above-mentioned d-q voltage components by means of inverse Park-transformation with the above-mentioned phase angle. an active rectifier; a pulse width modulation control portion, wherein the PWM control portion is configured to control switching of the active rectifier; and characterized by a closed loop vector control that is configured to detect a phase angle and frequency of an input source voltage (VS a, VS b, VS c), to transform three-phase input currents (i a, i b, i c) of the active rectifier into a d-current component and a q-current component by means of the detected phase angle, and to determine a q-component reference current as a function of a d-component reference current and d-q voltage components of input pole voltages (Vp a, Vp b, Vp c) of the active rectifier, wherein the closed loop vector control is configured to generate required duty cycles for PWM signals for the PWM control portion, the required duty cycles regulate the DC voltage output and force the three-phase input currents (i a, i b, i c) of the active rectifier to align with the input pole voltages (Vp a, Vp b, Vp c) of the active rectifier, which are determined from the above-mentioned d-q voltage components by means of inverse Park-transformation with the above-mentioned phase angle.
An intake apparatus for an engine comprising: injection means for injecting fuel into a flowstream (F G) of intake gas through the apparatus; and heating means for heating intake gas passing through the apparatus, characterised in that the injection means is operable to inject fuel into the flowstream (F G) of intake gas in a direction having at least a component that is against the direction of flow of gas (F G) through the conduit such that when intake gas flows through the apparatus at a first flow rate injected fuel impinges on the heating means and when intake gas flows through the apparatus at a second flow rate greater than the first a flowpath (F L) of injected fuel is deflected by intake gas such that substantially no fuel impinges on the heating means. injection means for injecting fuel into a flowstream (F G) of intake gas through the apparatus; and heating means for heating intake gas passing through the apparatus, characterised in that the injection means is operable to inject fuel into the flowstream (F G) of intake gas in a direction having at least a component that is against the direction of flow of gas (F G) through the conduit such that when intake gas flows through the apparatus at a first flow rate injected fuel impinges on the heating means and when intake gas flows through the apparatus at a second flow rate greater than the first a flowpath (F L) of injected fuel is deflected by intake gas such that substantially no fuel impinges on the heating means.
Play structure bearing member comprising a metal post and/or a horizontal bearing member having angular or circular cross-section, said play structure bearing member and/or said horizontal bearing member having an axial direction, said play structure bearing member and/or said horizontal bearing member comprises a siding/covering material extending along said axial direction, characterized in that said siding/covering material comprises at least two axially divided separate parts, each of said parts comprises a connection channel extending along one axial edge and a corresponding connection lock extending along the other axial edge, such that said two parts can be locked together by inserting said connection lock of one part into said connection channel of another part, in order to cover said play structure bearing member and/or said horizontal bearing member, said siding/covering material being made of a composite material.
Tie2 activator for use in the treatment or prevention of skin diseases attributable to leakage of lymph caused by structural instability of lymphatic vessels, wherein said Tie2 activator is an extract of Cinnamomum species plants.
Apparatus for producing a packaging, in particular a composite packaging for liquid foodstuffs, with a cross-sectional area that decreases in the pour-out direction in the gable region, comprising a sleeve having a gable region having a plurality of gable faces and a pouring element, wherein the apparatus has at least one rotatable mandrel wheel having a plurality of mandrels for holding the sleeves, characterised in that the apparatus has a gable press assigned to a single mandrel wheel position for folding the gable region, for connecting all gable faces of the gable region of the sleeve to the pouring element and for sealing the protruding ears in the same mandrel wheel position.
A fluid friction clutch - having a housing (2, 3) on which an operative element is arranged - having a clutch disk, • which is rotatable relative to the housing (2, 3), and • which is arranged at one end of a shaft centrally supported inside the housing (2, 3), - having a working chamber between the housing (2, 3) and the clutch disk; - having a storage chamber for clutch fluid; and - having a feed duct (11a, 11b), which leads from the storage chamber to the working chamber and in which a valve is arranged, characterized - by a supply pump element which is rotatable relative to the housing (2, 3) and • which is arranged, rotationally fixed, on the shaft, and • which defines a shear gap with the housing (2, 3); and - wherein the storage chamber is arranged externally. - having a housing (2, 3) on which an operative element is arranged - having a clutch disk, • which is rotatable relative to the housing (2, 3), and • which is arranged at one end of a shaft centrally supported inside the housing (2, 3), • which is rotatable relative to the housing (2, 3), and • which is arranged at one end of a shaft centrally supported inside the housing (2, 3), - having a working chamber between the housing (2, 3) and the clutch disk; - having a storage chamber for clutch fluid; and - having a feed duct (11a, 11b), which leads from the storage chamber to the working chamber and in which a valve is arranged, characterized - by a supply pump element which is rotatable relative to the housing (2, 3) and • which is arranged, rotationally fixed, on the shaft, and • which defines a shear gap with the housing (2, 3); and • which is arranged, rotationally fixed, on the shaft, and • which defines a shear gap with the housing (2, 3); and - wherein the storage chamber is arranged externally.
A caisson comprising an internal centralizer connected to the caisson, the centralizer comprising a catenoid shaped member defining a bore to dispose a conductor that extends from below a mud line to above a water surface and to position the caisson about the conductor, characterized by the bore having an expandable diameter.
An aromatic polycarbonate oligomer solid comprising a repeating unit represented by the following general formula and a repeating unit represented by the following general formula and having a weight average molecular weight of 500 to 10000, a low molecular weight component of 5.0 area% or less as measured by high performance liquid chromatography, and a loose bulk density of 0.25 g/cm 3 or more, wherein R 1 and R 2 each independently represent a hydrogen atom or an alkyl group having 1 to 4 carbon atoms. wherein R 3 and R 4 each independently represent a hydrogen atom or an alkyl group having 1 to 4 carbon atoms, and R 5 and R 6 each independently represent a hydrogen atom or an alkyl group having 1 to 12 carbon atoms, wherein the weight average molecular weight is determined by gel permeation chromatography measurement, as described in the present specification, and wherein the low molecular weight component is a component containing a compound having an absolute molecular weight of not more than an absolute molecular weight of a transesterification condensate obtained by condensation of two molecules of an aromatic dihydroxy compound and three molecules of a carbonate precursor. wherein R 1 and R 2 each independently represent a hydrogen atom or an alkyl group having 1 to 4 carbon atoms. wherein R 3 and R 4 each independently represent a hydrogen atom or an alkyl group having 1 to 4 carbon atoms, and R 5 and R 6 each independently represent a hydrogen atom or an alkyl group having 1 to 12 carbon atoms, wherein the weight average molecular weight is determined by gel permeation chromatography measurement, as described in the present specification, and wherein the low molecular weight component is a component containing a compound having an absolute molecular weight of not more than an absolute molecular weight of a transesterification condensate obtained by condensation of two molecules of an aromatic dihydroxy compound and three molecules of a carbonate precursor.
A vehicle comprising: a drive unit that has an engine (11, 12, 13) and a motor and is a drive source for travel of the vehicle; a motor cooling path that is connected to the motor and is a path of a refrigerant for cooling the motor and that has: a first motor cooling path (LN11, LN31); and a second motor cooling path (LN12, LN32), cooling performance of which by the refrigerant is higher than that of the first motor cooling path (LN11, LN31); and a switch unit (45, 46) that is connected to both of the first motor cooling path (LN11, LN31) and the second motor cooling path (LN12, LN32) and is configured to switch between cooling of the motor by causing the refrigerant to flow through the first motor cooling path (LN11, LN31) and cooling of the motor by causing the refrigerant to flow through the second motor cooling path (LN12, LN32), characterized in that the motor has a housing (14a, 14b) configured to accommodate a stator and a rotor for outputting rotary power, and at least a part of the switch unit (45, 46) and the motor cooling path are provided in the housing (14a, 14b). a drive unit that has an engine (11, 12, 13) and a motor and is a drive source for travel of the vehicle; a motor cooling path that is connected to the motor and is a path of a refrigerant for cooling the motor and that has: a first motor cooling path (LN11, LN31); and a second motor cooling path (LN12, LN32), cooling performance of which by the refrigerant is higher than that of the first motor cooling path (LN11, LN31); and a switch unit (45, 46) that is connected to both of the first motor cooling path (LN11, LN31) and the second motor cooling path (LN12, LN32) and is configured to switch between cooling of the motor by causing the refrigerant to flow through the first motor cooling path (LN11, LN31) and cooling of the motor by causing the refrigerant to flow through the second motor cooling path (LN12, LN32), characterized in that the motor has a housing (14a, 14b) configured to accommodate a stator and a rotor for outputting rotary power, and at least a part of the switch unit (45, 46) and the motor cooling path are provided in the housing (14a, 14b).
Process for producing a polymer foam, including the step of - heating a composition comprising at least one blowing agent, at least one first polymer and at least one second polymer to a temperature which enables elimination of water from the at least one blowing agent, for the formation of foam, where the at least one blowing agent is a hydrotalcite of the general formula M 2+ 1-x Al x 2 (A n-) x/n * d H 2 O and where M 2+ as cation is one or more of the metals from the group Mg, Ca, Sr, Zn or Sn, 0 < x < 0.5, d is a number from < 0 to 20, A n is an anion selected from OH -, ClO 4 -, HCO 3 -, CH 3 COO -, C 6 H 5 COO -, CO 3 2-, (CHOHCOO) 2 2-, (CH 2 COO) 2 2-, CH 3 CHOHCOO -, HPO 3 - or HPO 4 2-, and n is the charge of the anion, and where the at least second polymer is different from the first polymer, the at least second polymer supports the formation of foam and is an acid anhydride homopolymer or a copolymer of at least one acid anhydride monomer and at least one further monomer, where the acid anhydride as a monomer unit in the second polymer is not introduced by grafting. - heating a composition comprising at least one blowing agent, at least one first polymer and at least one second polymer to a temperature which enables elimination of water from the at least one blowing agent, for the formation of foam, where the at least one blowing agent is a hydrotalcite of the general formula M 2+ 1-x Al x 2 (A n-) x/n * d H 2 O and where M 2+ as cation is one or more of the metals from the group Mg, Ca, Sr, Zn or Sn, 0 < x < 0.5, d is a number from < 0 to 20, A n is an anion selected from OH -, ClO 4 -, HCO 3 -, CH 3 COO -, C 6 H 5 COO -, CO 3 2-, (CHOHCOO) 2 2-, (CH 2 COO) 2 2-, CH 3 CHOHCOO -, HPO 3 - or HPO 4 2-, and n is the charge of the anion, and where the at least second polymer is different from the first polymer, the at least second polymer supports the formation of foam and is an acid anhydride homopolymer or a copolymer of at least one acid anhydride monomer and at least one further monomer, where the acid anhydride as a monomer unit in the second polymer is not introduced by grafting. where the at least one blowing agent is a hydrotalcite of the general formula M 2+ 1-x Al x 2 (A n-) x/n * d H 2 O and where M 2+ as cation is one or more of the metals from the group Mg, Ca, Sr, Zn or Sn, 0 < x < 0.5, d is a number from < 0 to 20, A n is an anion selected from OH -, ClO 4 -, HCO 3 -, CH 3 COO -, C 6 H 5 COO -, CO 3 2-, (CHOHCOO) 2 2-, (CH 2 COO) 2 2-, CH 3 CHOHCOO -, HPO 3 - or HPO 4 2-, and n is the charge of the anion, and where the at least second polymer is different from the first polymer, the at least second polymer supports the formation of foam and is an acid anhydride homopolymer or a copolymer of at least one acid anhydride monomer and at least one further monomer, where the acid anhydride as a monomer unit in the second polymer is not introduced by grafting.
A target wireless transmit/receive unit, WTRU, for receiving a first media flow of a communication session associated with a source WTRU, the target WTRU comprising: a receiver configured to receive an Inter-User Equipment, UE, Transfer, IUT, request, the IUT request being received via a local mobility anchor, LMA, and the IUT request indicating a request for receiving the first media flow of the communication session associated with the source WTRU, wherein the source WTRU is associated with a source home address, HoA, and the target WTRU is associated with a target care of address, CoA; and a transmitter configured to transmit an IUT acknowledgement in response to the IUT request; the receiver further configured to receive the first media flow of the communication session based on a binding maintained by the LMA between the first media flow, the source HoA, and the target CoA, wherein the first media flow of the communication session is addressed to the source HoA, and wherein a second media flow of the communication addressed to the source HoA is not transferred to the target WTRU and remains with the source WTRU. a receiver configured to receive an Inter-User Equipment, UE, Transfer, IUT, request, the IUT request being received via a local mobility anchor, LMA, and the IUT request indicating a request for receiving the first media flow of the communication session associated with the source WTRU, wherein the source WTRU is associated with a source home address, HoA, and the target WTRU is associated with a target care of address, CoA; and a transmitter configured to transmit an IUT acknowledgement in response to the IUT request; the receiver further configured to receive the first media flow of the communication session based on a binding maintained by the LMA between the first media flow, the source HoA, and the target CoA, wherein the first media flow of the communication session is addressed to the source HoA, and wherein a second media flow of the communication addressed to the source HoA is not transferred to the target WTRU and remains with the source WTRU.
Control method for converting power, wherein DC voltage from a DC power supply is converted into alternating voltage, at least one first alternating voltage waveform being obtained by means of at least one multi-level inverter, one second alternating voltage waveform being obtained by means of at least one other multi-level inverter, the alternating voltage waves (AC1, AC2) of the different inverters (1, 2) being combined in parallel a resulting alternating voltage waveform being obtained, during the conversion of DC voltage into alternating voltage an additional alternating voltage waveform being obtained by means of at least one additional multi-level inverter and a second additional alternating voltage waveform being obtained by means of at least one other additional multi-level inverter from said DC power supply, said additional alternating voltage waves (AC3, AC4) being combined in parallel an additional resulting alternating voltage waveform being obtained as a result of the combination, characterised in that the additional resulting alternating voltage waveform is displaced in phase by approximately 180° in relation to the resulting alternating voltage waveform, and in that the common-mode voltages are eliminated from at least one of the alternating voltage waves (AC1, AC2; AC12; AC3, AC4; AC34) by means of at least a zero-sequence blocking transformer.
A method for manufacturing a magnetic core having a structure comprising dispersed Fe-based soft magnetic alloy particles, the method comprising: - a first step comprising mixing a first Fe-based soft magnetic alloy powder containing A1 and Cr, a second Fe-based soft magnetic alloy powder containing Cr and Si, and a binder; - a second step comprising pressing a mixture obtained after the first step; and - a third step comprising heat-treating a compact obtained after the second step, wherein the heat treatment forms an oxide layer on a surface of Fe-based soft magnetic alloy particles and bonds the Fe-based soft magnetic alloy particles together through the oxide layer, wherein the first Fe-based soft magnetic alloy powder has a Fe content of 80 % by mass or more, a Cr content of 1.0 % by mass or more and 9.0 % by mass or less, an Al content of 2.0 % by mass or more and 10.0 % by mass or less, and the remainder being inevitable impurities, and wherein the second Fe-based soft magnetic alloy powder has a Fe content of 80 % by mass or more, a Cr content of 1.0 % by mass or more and 9.0 % by mass or less, a Si content of 1.0 % by mass or more and 10.0 % by mass or less, and the remainder being inevitable impurities, wherein the inevitable impurities for the first Fe-based soft magnetic alloy powder are as follows: Si < 1.0 % by mass, Mn ≤ 1.0 % by mass, C ≤ 0.05 % by mass, O ≤ 0.3 % by mass, N ≤ 0.1 % by mass, P ≤ 0.02 % by mass, S ≤ 0.02 % by mass, and wherein the inevitable impurities for the second Fe-based soft magnetic alloy powder are as follows: Mn ≤ 1.0 % by mass, C ≤ 0.05 % by mass, O ≤ 0.3 % by mass, N ≤ 0.1 % by mass, P ≤ 0.02 % by mass, S ≤ 0.02 % by mass. - a first step comprising mixing a first Fe-based soft magnetic alloy powder containing A1 and Cr, a second Fe-based soft magnetic alloy powder containing Cr and Si, and a binder; - a second step comprising pressing a mixture obtained after the first step; and - a third step comprising heat-treating a compact obtained after the second step,
An electrochemical device comprising two electrodes, a first electrode with tubular shape and circular section (cathode) and a second electrode with tubular shape and circular section (anode) placed inside the first electrode and coaxial thereto, to form a space between the two electrodes being divided in two chambers by a membrane wall concentric to the first electrode, wherein a cathode chamber is arranged between the first electrode and the membrane wall and an anode chamber is arranged between the second electrode and the membrane wall and two sealing bushings, one upper bushing and one lower bushing arranged at the ends of the two electrodes and, wherein the lower bushing has an inlet channel of the electrolytes to the cathode chamber and an inlet channel of the electrolytes to the anode chamber and the upper bushing has an outlet channel of the electrolytes from the anode chamber and an outlet channel of the electrolytes from the cathode chamber, wherein 65 Dd/Ds ≤ K/ln ≤ 25 Db/Ds 0.6 ≤ Ss/Sb ≤ 1.9 Db being the internal diameter measurement of the second electrode with tubular shape and circular section (anode), Db being from 0.1 Ds to 0.7 Ds, Ds being the internal diameter measurement of the first electrode with tubular shape and circular section (cathode), Dd being the internal diameter measurement of the membrane wall, Dd being from 0.15 Ds to 0.8 Ds, K the measurement of the distance between the electrodes, L being the measurement of the distance between the inlet and outlet channels of the electrodes, Ss being the measurement of the area of the cross section of the cathode chamber, Sb being the measurement of the area of the cross section of the anode chamber; a stagnation chamber with spheroidal shape opened to the cathode chamber and positioned at the intersection between the cathode chamber and the outlet channel of the electrolytes from the cathode chamber, and connected with the outlet channel of the electrolytes from the cathode chamber by a connector pipe wherein r<D< 3r and d<r< 3d, D being the diameter measurement of the outlet collector of the cathode chamber, r being the measurement of the radius of the stagnation chamber, d being the diameter measurement of the connector pipe.