mhurhangee/ep-ind-claims huggingface dataset:
A chemical reactor system, comprising: a first reaction zone and a heat path positioned to direct heat into the first reaction zone; a reactant source coupled to the first reaction zone; a first actuator coupled in fluid communication with the first reaction zone to cyclically pressurize the first reaction zone; a second reaction zone in fluid communication with the first reaction zone; a mechanism coupled between the first and second reaction zones to control a flow rate between the first and second reaction zones; a second actuator coupled in fluid communication with the second reaction zone to cyclically pressurize the second reaction zone; a first heat exchanger positioned to direct heat from a first product leaving the first reaction zone to a reactant entering the first reaction zone; a second heat exchanger positioned to direct heat from a second product leaving the second reaction zone to the reactant entering the first reaction zone; and a controller coupled to the first and second actuators, the controller being programmed with instructions that, when executed, control the first and second actuators in a coordinated manner based at least in part on a flow rate of the second product from the second reaction zone. a first reaction zone and a heat path positioned to direct heat into the first reaction zone; a reactant source coupled to the first reaction zone; a first actuator coupled in fluid communication with the first reaction zone to cyclically pressurize the first reaction zone; a second reaction zone in fluid communication with the first reaction zone; a mechanism coupled between the first and second reaction zones to control a flow rate between the first and second reaction zones; a second actuator coupled in fluid communication with the second reaction zone to cyclically pressurize the second reaction zone; a first heat exchanger positioned to direct heat from a first product leaving the first reaction zone to a reactant entering the first reaction zone; a second heat exchanger positioned to direct heat from a second product leaving the second reaction zone to the reactant entering the first reaction zone; and a controller coupled to the first and second actuators, the controller being programmed with instructions that, when executed, control the first and second actuators in a coordinated manner based at least in part on a flow rate of the second product from the second reaction zone.
A wind turbine comprising a number of blades (110, 210, 410) extending substantially radially from a rigid hub (108, 208, 408) on a main shaft having a substantially horizontal axis, the blades (110, 210, 410) together with the hub (108, 208, 408) constituting a rotor with a rotor plane, and which can be put into rotation by wind, wherein the main shaft is pivotally mounted in a nacelle (106, 206) mounted on top of a tower (104, 204), the nacelle (106, 206) being able to pivot around a vertical axis in relation to the tower (104, 204), hereby being able to adjust the rotor plane of the blades (110, 210, 410) in relation to a direction of the wind, and wherein the wind turbine is an upwind machine in that the rotor during normal use of the wind turbine is positioned on the upwind side of the tower (104, 204), the rotor during normal use of the wind turbine having a windward side and a leeward side, and each blade having an innermost part (228, 628) comprising a root section of the blade and an outermost part (229, 629) comprising a tip section of the blade, characterised in that each blade (110, 210, 410) is supported on the leeward side so as to support the blade against forces in the upwind direction by at least a first leeward supporting means (220, 420, 520, 720, 1020) having a first end and a second end, - the first end being connected to the blade at a first leeward mounting point (222, 422, 522, 722, 1022) positioned in a radial distance from the horizontal axis, and - the second end being connected to a second leeward mounting point (224, 424, 524, 1024) at a rotatable part of the wind turbine, the second leeward mounting point being positioned in an axial distance from the rotor plane on the leeward side of the rotor, wherein the first leeward mounting point (222, 422, 522, 722, 1022) on the blade (110, 210, 410) is positioned in a radial distance of 20-100 % of the full length of the blade (110, 210, 410) from the hub (108, 208, 408) - the first end being connected to the blade at a first leeward mounting point (222, 422, 522, 722, 1022) positioned in a radial distance from the horizontal axis, and - the second end being connected to a second leeward mounting point (224, 424, 524, 1024) at a rotatable part of the wind turbine, the second leeward mounting point being positioned in an axial distance from the rotor plane on the leeward side of the rotor, wherein the first leeward mounting point (222, 422, 522, 722, 1022) on the blade (110, 210, 410) is positioned in a radial distance of 20-100 % of the full length of the blade (110, 210, 410) from the hub (108, 208, 408)
A computer implemented method for encoding a sound field comprising: detecting one or more indications of change in the orientation of a computing device relative to the sound field, the computing device having a changing orientation from a first orientation to a second orientation relative to the sound field; selecting one or more microphones associated with the computing device responsive to the one or more indications of the change in orientation of the computing device; mixing the sound field received by the selected microphones over time during a transition of the orientation of the computing device from the first orientation to the second orientation to mitigate a noticeable change of the sound field during the transition; and encoding the mixed sound field received by the selected microphones. detecting one or more indications of change in the orientation of a computing device relative to the sound field, the computing device having a changing orientation from a first orientation to a second orientation relative to the sound field; selecting one or more microphones associated with the computing device responsive to the one or more indications of the change in orientation of the computing device; mixing the sound field received by the selected microphones over time during a transition of the orientation of the computing device from the first orientation to the second orientation to mitigate a noticeable change of the sound field during the transition; and encoding the mixed sound field received by the selected microphones.
A method of detecting common path distortion, CPD, by synchronous capture of a forward signal and a related actual CPD signal at a remote physical layer, PHY, device, the remote PHY device being coupled between a headend and a coaxial cable plant of a hybrid-fiber coax, HFC, network and including a forward signal transmitter, a return signal receiver, and a diplexer having forward and return legs, a physical forward path being defined between the forward signal transmitter and the forward leg and a physical return path being defined between the return signal receiver and the return leg, the forward signal transmitter transmitting the forward signal to the coaxial cable plant via the physical forward path and the forward leg of the diplexer, a portion of the forward signal leaking through the return leg of the diplexer and traveling over the physical return path to the return signal receiver, the actual CPD signal being generated by an interaction between the forward signal and a CPD source in the coaxial cable plant, the forward signal propagating from the remote PHY device to the CPD source and the actual CPD signal propagating from the CPD source to the remote PHY device all within a round-trip interval, said method comprising the steps of: a) operating the return signal receiver of the remote PHY device to capture the actual CPD signal and the leaked portion of the forward signal by configuring the return signal receiver of the remote PHY device to capture a range of frequencies of the forward signal spectrum; b) transmitting to the headend of the HFC network the actual CPD signal and the leaked portion of the forward signal captured in step a); c) at the headend or a device communicating with the headend, generating from the leaked portion of the forward signal a reference CPD signal which substantially simulates the actual CPD signal; d) performing a cross-correlation of the reference and the actual CPD signals to produce a correlation peak having a time delay corresponding to the round-trip interval; and e) detecting the actual CPD signal from the correlation peak. a) operating the return signal receiver of the remote PHY device to capture the actual CPD signal and the leaked portion of the forward signal by configuring the return signal receiver of the remote PHY device to capture a range of frequencies of the forward signal spectrum; b) transmitting to the headend of the HFC network the actual CPD signal and the leaked portion of the forward signal captured in step a); c) at the headend or a device communicating with the headend, generating from the leaked portion of the forward signal a reference CPD signal which substantially simulates the actual CPD signal; d) performing a cross-correlation of the reference and the actual CPD signals to produce a correlation peak having a time delay corresponding to the round-trip interval; and e) detecting the actual CPD signal from the correlation peak.
Pigmented composition, more particularly pigmented coating material composition, comprising (a) at least one solvent L, (b) at least one compound of the general formula R 1 -(C=O) r -O- s -R 2 in which R 1 is a saturated or unsaturated, aliphatic hydrocarbon radical having 6 to 30 carbon atoms, R 2 is H, AO stands for one or more alkylene oxide radicals selected from the group consisting of ethylene oxide, propylene oxide and butylene oxide, r is 0 or 1, and s is 0 to 30; (c) optionally at least one polyether-modified alkylpolysiloxane, (d) at least one polysiloxane of the general formula R 3 -Si(R 4) 2 -[O-Si(R 4)(R 5)] a -[O-Si(R 4) 2] b -O-Si(R 4) 2 -R 3, in which R 3 is a (HO-CH 2) 2 -C(CH 2 -CH 3)-CH 2 -O-(CH 2) 3 -* radical, R 4 is a methyl group, R 5 is a methyl group, a is 0, and b is 7 to 14; (e) at least one colour base BF, and (f) at least one binder B, wherein the pigmented composition additionally comprises at least one crosslinking agent V. (a) at least one solvent L, (b) at least one compound of the general formula R 1 -(C=O) r -O- s -R 2 in which R 1 is a saturated or unsaturated, aliphatic hydrocarbon radical having 6 to 30 carbon atoms, R 2 is H, AO stands for one or more alkylene oxide radicals selected from the group consisting of ethylene oxide, propylene oxide and butylene oxide, r is 0 or 1, and s is 0 to 30; in which R 1 is a saturated or unsaturated, aliphatic hydrocarbon radical having 6 to 30 carbon atoms, R 2 is H, AO stands for one or more alkylene oxide radicals selected from the group consisting of ethylene oxide, propylene oxide and butylene oxide, r is 0 or 1, and s is 0 to 30; (c) optionally at least one polyether-modified alkylpolysiloxane, (d) at least one polysiloxane of the general formula R 3 -Si(R 4) 2 -[O-Si(R 4)(R 5)] a -[O-Si(R 4) 2] b -O-Si(R 4) 2 -R 3, in which R 3 is a (HO-CH 2) 2 -C(CH 2 -CH 3)-CH 2 -O-(CH 2) 3 -* radical, R 4 is a methyl group, R 5 is a methyl group, a is 0, and b is 7 to 14; R 3 is a (HO-CH 2) 2 -C(CH 2 -CH 3)-CH 2 -O-(CH 2) 3 -* radical, R 4 is a methyl group, R 5 is a methyl group, a is 0, and b is 7 to 14; (e) at least one colour base BF, and (f) at least one binder B,
A decoating system comprising: a decoating kiln; a dust cyclone configured to: receive an exhaust gas from the decoating kiln; filter organic particulate matter from the exhaust gas as dust; and discharge the dust at a cyclone discharge temperature; and a cooled conveyor comprising a screw rotatably positioned in a trough, wherein at least one of the screw or the trough is internally cooled with a coolant and wherein the cooled conveyer is configured to: receive the dust from the dust cyclone; and cool the dust to a dust processing temperature that is less than the cyclone discharge temperature. a decoating kiln; a dust cyclone configured to: receive an exhaust gas from the decoating kiln; filter organic particulate matter from the exhaust gas as dust; and discharge the dust at a cyclone discharge temperature; and receive an exhaust gas from the decoating kiln; filter organic particulate matter from the exhaust gas as dust; and discharge the dust at a cyclone discharge temperature; and a cooled conveyor comprising a screw rotatably positioned in a trough, wherein at least one of the screw or the trough is internally cooled with a coolant and wherein the cooled conveyer is configured to: receive the dust from the dust cyclone; and cool the dust to a dust processing temperature that is less than the cyclone discharge temperature. receive the dust from the dust cyclone; and cool the dust to a dust processing temperature that is less than the cyclone discharge temperature.
Device for compacting, i.e. in particular for harmonic compacting, of mineral mixtures, in particular concrete mixtures in the production of concrete products of all kinds, or for deep drawing, in particular of sheet metal or plastic blanks, comprising: - a machine frame with a machine head, a machine table and at least two side elements (16a, 16b) connecting the machine head and the machine table, - a first piston-cylinder arrangement connected to the machine table, whereby the first piston-cylinder arrangement is designed to exert lifting and lowering forces on a mould element (42, 24) which can be filled with mineral mixture, i.e. in particular concrete mixture, or on a mould element onto which a sheet metal or plastic blank can be placed, in order to lift the mould element (42, 24) and cause it to vibrate, - a second piston-cylinder arrangement connected to the machine head, which is characterised in that the second piston-cylinder arrangement is designed to hold a punch which can enter the mould element (42, 24) with a retention force which is equal to or greater than the maximum lifting force of the first piston-cylinder arrangement. - a machine frame with a machine head, a machine table and at least two side elements (16a, 16b) connecting the machine head and the machine table, - a first piston-cylinder arrangement connected to the machine table, whereby the first piston-cylinder arrangement is designed to exert lifting and lowering forces on a mould element (42, 24) which can be filled with mineral mixture, i.e. in particular concrete mixture, or on a mould element onto which a sheet metal or plastic blank can be placed, in order to lift the mould element (42, 24) and cause it to vibrate, - a second piston-cylinder arrangement connected to the machine head, which is characterised in that the second piston-cylinder arrangement is designed to hold a punch which can enter the mould element (42, 24) with a retention force which is equal to or greater than the maximum lifting force of the first piston-cylinder arrangement.
A switch cabinet locking arrangement comprising a system for detecting locking authorization, the system comprising a door lock having an antenna for contactless reception of an access authorization signal from a separate transponder, wherein only in an active state of the antenna an excitation signal for the transponder is emitted from the antenna, wherein the locking arrangement comprises a voltage meter via which in the passive state of the antenna an electrical voltage dropping across the antenna or a voltage change is detected, wherein the antenna changes from the passive state to the active state when a voltage drop is applied to the antenna in the passive state, wherein the antenna of the door lock is connected to an oscillation generator powered by an electrical energy source, wherein the oscillation generator is controlled by control electronics for generating an excitation frequency, characterized in that in the passive state of the antenna the oscillation generator is permanently inactive.
A method comprising: generating first and second pseudo-random numbers using first and second pseudo-random number generators, PRNGs, (4-410, 4-450) in a mesh block, respectively; transmitting a first plurality of pseudo-random signals (413-1 to 413-32) indicating the first pseudo-random number through a first plurality of mesh wires (411-1 to 411-32) to a mesh buffer; converting the first plurality of pseudo-random signals into a plurality of modified signals (414-1 to 414-32) using the mesh buffer; transmitting the plurality of modified signals through a second plurality of mesh wires (412-1 to 412-32) to a comparator block; converting, by an inverting block in the comparator block, the plurality of modified signals into a first plurality of input signals (419-1 to 419-32), the first plurality of input signals having logical values corresponding to those of the first plurality of pseudo-random signals, respectively; and comparing, in the comparator block, the first plurality of input signals with a second plurality of input signals (418-1 to 418-32) indicating the second pseudo-random number to generate an output signal from the mesh block, wherein the output signal indicates an occurrence of an unauthorized activity on the mesh block. generating first and second pseudo-random numbers using first and second pseudo-random number generators, PRNGs, (4-410, 4-450) in a mesh block, respectively; transmitting a first plurality of pseudo-random signals (413-1 to 413-32) indicating the first pseudo-random number through a first plurality of mesh wires (411-1 to 411-32) to a mesh buffer; converting the first plurality of pseudo-random signals into a plurality of modified signals (414-1 to 414-32) using the mesh buffer; transmitting the plurality of modified signals through a second plurality of mesh wires (412-1 to 412-32) to a comparator block; converting, by an inverting block in the comparator block, the plurality of modified signals into a first plurality of input signals (419-1 to 419-32), the first plurality of input signals having logical values corresponding to those of the first plurality of pseudo-random signals, respectively; and comparing, in the comparator block, the first plurality of input signals with a second plurality of input signals (418-1 to 418-32) indicating the second pseudo-random number to generate an output signal from the mesh block, wherein the output signal indicates an occurrence of an unauthorized activity on the mesh block.
Product transport container with a desired temperature range, comprising: - a box made of insulating material delimiting a compartment opened upwards having a volume less than 150 liters and able to contain the products, the box having a determined heat dissipation value; - a cover made of insulating material adaptable on the box to seal the compartment; - a diffusing divider wall interposed between the box and the cover to delimit with the cover, a chamber with a surface for receiving at least one refrigerated load emitting a heat value, the cover and the divider wall comprising complementary means for locking/unlocking with one another; the cover and the divider wall are independent from one another and comprise complementary articulation means able to allow the pivoting of the cover with respect to the divider wall and along a pivoting edge, to enable the putting into place of the refrigerated load inside the chamber, while the heat energy emitted by the refrigerated load and the thermal diffusion coefficient of the divider wall are adjusted such that, at determined transport and conservation temperatures and for a desired duration after receiving the refrigerated load and exposure of the container to the transport temperature, the heat value diffused by the divider wall to the compartment is equal to, or at most 20% greater than the heat value dissipated by the box, characterized in that the articulation means of the cover comprise at least one groove disposed along the pivoting edge of the cover and facing the divider wall, a projecting ridge with a circular cross-section borders the inner side of the groove, and the complementary articulation means of the divider wall comprise at least one complementary groove at the projecting ridge intended to engagingly receive said ridge with pivoting capacity. - a box made of insulating material delimiting a compartment opened upwards having a volume less than 150 liters and able to contain the products, the box having a determined heat dissipation value; - a cover made of insulating material adaptable on the box to seal the compartment; - a diffusing divider wall interposed between the box and the cover to delimit with the cover, a chamber with a surface for receiving at least one refrigerated load emitting a heat value, the cover and the divider wall comprising complementary means for locking/unlocking with one another;
A process comprising: - contacting an adhesive layer having a first side and a second side, on its first side with a metal layer having a first side and a second side, on its first side, at a temperature of 162.8 °C to 218.3 °C (325oF to 425oF) for a contact time of 0.5 to 5.0 seconds, thereby adhering the adhesive layer to the metal layer to form a multilayer structure, the adhesive layer comprising: (a) 45 to 85 wt% of an ethylene-C 4-8 α-olefin linear low density copolymer; (b) 5 to 25 wt% of a polymer grafted with an ethylenically unsaturated carboxylic acid or acid derivative; and (c) 10 to 30 wt% of a styrene-butadiene-styrene triblock copolymer having an MI of 5 to 50 measured according to ASTM D1238 (200° C; 5 kg). - contacting an adhesive layer having a first side and a second side, on its first side with a metal layer having a first side and a second side, on its first side, at a temperature of 162.8 °C to 218.3 °C (325oF to 425oF) for a contact time of 0.5 to 5.0 seconds, thereby adhering the adhesive layer to the metal layer to form a multilayer structure, (a) 45 to 85 wt% of an ethylene-C 4-8 α-olefin linear low density copolymer; (b) 5 to 25 wt% of a polymer grafted with an ethylenically unsaturated carboxylic acid or acid derivative; and (c) 10 to 30 wt% of a styrene-butadiene-styrene triblock copolymer having an MI of 5 to 50 measured according to ASTM D1238 (200° C; 5 kg).