mhurhangee/ep-ind-claims huggingface dataset:
A decoy deployment system comprising: a towed decoy deployment mechanism for controlling the deployment of a decoy from an aircraft, a tow cable adapted to be deployed via the towed decoy deployment mechanism; characterised in that the tow cable comprises a fibre core surrounded by an outer fibre sheath, the frictional coefficients of the fibre materials comprising the core and the sheath being selected such that the fibre material comprising the outer sheath has a higher frictional coefficient relative to the frictional coefficient of the material comprising the inner core; the frictional coefficient of the fibre material of the outer sheath being compatible with the deployment mechanism enabling said controlled deployment of the decoy a towed decoy deployment mechanism for controlling the deployment of a decoy from an aircraft, a tow cable adapted to be deployed via the towed decoy deployment mechanism; characterised in that the tow cable comprises a fibre core surrounded by an outer fibre sheath, the frictional coefficients of the fibre materials comprising the core and the sheath being selected such that the fibre material comprising the outer sheath has a higher frictional coefficient relative to the frictional coefficient of the material comprising the inner core; the frictional coefficient of the fibre material of the outer sheath being compatible with the deployment mechanism enabling said controlled deployment of the decoy
Method for digitally transferring data blocks from a transmitting station to a receiving station, wherein the data blocks are provided on the transmitting side with error protection data, characterised in that the data block provided with error protection is transmitted, respectively, to the receiving station in a message via a disturbed transfer channel, wherein on the transmitting side it is determined for transferring at least one further data block in which areas the further data block differs from the preceding data block, in that the delta information thus obtained is provided with own error protection data, in that the delta information is added to the at least one further data block provided with error protection and the thus expanded further data block is transferred via the disturbed transfer channel to the receiving station, wherein the received first and the at least one expanded further data block, including the error protection portion, are stored (81, 82) in the receiving station, in that at first the delta information of the at least one expanded further data block is recovered using the error protection data for the delta information, in that the delta information is applied to the stored preceding data block for getting said data block into a form making it comparable with the at least one further data block, in that the received at least one further data block and the converted preceding data block are combined, and in that the user information of the further data block is recovered from the combined data block.
An actuating drive for moving a movable furniture part, comprising: - a housing configured to be fixed to a furniture carcass, - at least one actuating arm pivotally supported about a pivoting axis for moving the movable furniture part, - a spring device for applying a force to the actuating arm, - a transmission mechanism for transmitting a force from the spring device to the actuating arm, wherein the transmission mechanism includes an actuating portion movement-coupled to the actuating arm, a setting contour and a pressure portion pressurized by the spring device, the pressure portion being configured as a rotatably mounted pressure roller and being configured to run along the setting contour upon a movement of the actuating arm, wherein the setting contour is arranged between the actuating portion and the pressure roller, - wherein the setting contour is arranged on a contour portion separate from the actuating portion, wherein the contour portion has a fastening section configured to bear against the actuating portion and a limb protruding transversely from the fastening portion, wherein the setting contour is formed by a curved outer surface of the limb, characterized in that the pressure roller is supported on a slider which is linearly displaceable relative to the housing. - a housing configured to be fixed to a furniture carcass, - at least one actuating arm pivotally supported about a pivoting axis for moving the movable furniture part, - a spring device for applying a force to the actuating arm, - a transmission mechanism for transmitting a force from the spring device to the actuating arm, wherein the transmission mechanism includes an actuating portion movement-coupled to the actuating arm, a setting contour and a pressure portion pressurized by the spring device, the pressure portion being configured as a rotatably mounted pressure roller and being configured to run along the setting contour upon a movement of the actuating arm, wherein the setting contour is arranged between the actuating portion and the pressure roller, - wherein the setting contour is arranged on a contour portion separate from the actuating portion, wherein the contour portion has a fastening section configured to bear against the actuating portion and a limb protruding transversely from the fastening portion, wherein the setting contour is formed by a curved outer surface of the limb,
A method of making an article of footwear, comprising: printing a coloring ink layer onto a surface of a base material element, the resulting coloring ink layer having an inner side disposed against the surface of the base material element and an outer side that is opposite of the inner side; printing a plurality of protruding elements onto the outer side of the coloring ink layer, thereby forming a composite structure comprised of the base material element, the coloring ink layer and the plurality of protruding elements; and forming an upper for the article of footwear from the composite structure, wherein forming the upper includes cutting the composite structure to separate a portion of the base material element corresponding to a base layer for the formed upper from a surrounding material portion, characterized in that the plurality of protruding elements are printed so that the density of the protruding elements at a portion of the upper varies in an approximately radial direction such that the density increases towards a front end portion, a heel portion and a sole structure. printing a coloring ink layer onto a surface of a base material element, the resulting coloring ink layer having an inner side disposed against the surface of the base material element and an outer side that is opposite of the inner side; printing a plurality of protruding elements onto the outer side of the coloring ink layer, thereby forming a composite structure comprised of the base material element, the coloring ink layer and the plurality of protruding elements; and forming an upper for the article of footwear from the composite structure, wherein forming the upper includes cutting the composite structure to separate a portion of the base material element corresponding to a base layer for the formed upper from a surrounding material portion, characterized in that the plurality of protruding elements are printed so that the density of the protruding elements at a portion of the upper varies in an approximately radial direction such that the density increases towards a front end portion, a heel portion and a sole structure.
Method for processing stretched-curd cheeses, wherein it comprises the following sequence of steps: - a step of stretching the melted cheese to obtain stretched curd; - a step of forming said stretched curd to obtain portions of stretched curd with predefined shape and weight; - a step of packaging said portions of stretched curd to obtain packaged portions; characterized in that the method then comprises: - a step of hardening said packaged portions in a bath with a controlled temperature to obtain already packaged stretched-curd cheeses, wherein said hardening step comprises one or more cooling steps at a controlled temperature. - a step of stretching the melted cheese to obtain stretched curd; - a step of forming said stretched curd to obtain portions of stretched curd with predefined shape and weight; - a step of packaging said portions of stretched curd to obtain packaged portions; characterized in that the method then comprises: - a step of hardening said packaged portions in a bath with a controlled temperature to obtain already packaged stretched-curd cheeses, wherein said hardening step comprises one or more cooling steps at a controlled temperature.
Electromagnetic antenna reconfigurable by electrowetting comprising: a first electrically-conductive element (S 1) surrounded by an insulating element (S 3); a second electrically-conductive element (S 2) surrounding the insulating element (S 3) which separates it from the first conductive element (S 1); a radiofrequency port linked to the first conductive element (S 1) and allowing the transmission and reception of signals; and a radiating element composed of a first electrically-conductive fluid substance (F 1), resting on said first conductive element (S 1) and a second fluid substance (F 2) resting on said second conductive element (S 2) and covering the fluid substance (F 1), the first fluid substance (F 1) being in contact with the second fluid substance (F 2) at a contact surface (Sc), said fluid substances being non-miscible; the outlines and the volume of the first fluid substance (F 1) being reversibly deformable by application of a potential difference between the first (S 1) and the second (S 2) conductive elements to modify at least one electromagnetic radiation characteristic of the first fluid substance (F 1). a first electrically-conductive element (S 1) surrounded by an insulating element (S 3); a second electrically-conductive element (S 2) surrounding the insulating element (S 3) which separates it from the first conductive element (S 1); a radiofrequency port linked to the first conductive element (S 1) and allowing the transmission and reception of signals; and a radiating element composed of a first electrically-conductive fluid substance (F 1), resting on said first conductive element (S 1) and a second fluid substance (F 2) resting on said second conductive element (S 2) and covering the fluid substance (F 1), the first fluid substance (F 1) being in contact with the second fluid substance (F 2) at a contact surface (Sc), said fluid substances being non-miscible; the outlines and the volume of the first fluid substance (F 1) being reversibly deformable by application of a potential difference between the first (S 1) and the second (S 2) conductive elements to modify at least one electromagnetic radiation characteristic of the first fluid substance (F 1).
A method for a User Equipment, UE, comprising: the UE is configured with a first cell; the UE is configured with a second cell; and the UE changes active downlink Bandwidth Part, BWP, of the first cell from a first downlink BWP to a second downlink BWP, wherein a first occasion for candidate Physical Downlink Shared Channel, PDSCH, reception or Semi-Persistent Scheduling, SPS, PDSCH release in the first cell is prior to finishing the change of active downlink BWP of the first cell, and a second occasion for candidate PDSCH reception or SPS PDSCH release in the second cell is prior to finishing the change of active downlink BWP of the first cell; characterized in that the UE transmits an uplink signal in a slot on the first cell after the change of active downlink BWP, wherein the uplink signal comprises Hybrid Automatic Repeat Request Acknowledgment, HARQ-ACK, associated with the second occasion and not associated with the first occasion. the UE is configured with a first cell; the UE is configured with a second cell; and the UE changes active downlink Bandwidth Part, BWP, of the first cell from a first downlink BWP to a second downlink BWP, wherein a first occasion for candidate Physical Downlink Shared Channel, PDSCH, reception or Semi-Persistent Scheduling, SPS, PDSCH release in the first cell is prior to finishing the change of active downlink BWP of the first cell, and a second occasion for candidate PDSCH reception or SPS PDSCH release in the second cell is prior to finishing the change of active downlink BWP of the first cell; characterized in that the UE transmits an uplink signal in a slot on the first cell after the change of active downlink BWP, wherein the uplink signal comprises Hybrid Automatic Repeat Request Acknowledgment, HARQ-ACK, associated with the second occasion and not associated with the first occasion.
A method for a curing cycle of an silico-aluminate inorganic thermoset resin, the method comprising: (a) adding aluminium phosphate as hardener in a concentration of 20 or 25% by weight of the resin to said silico-aluminate inorganic thermoset resin; and (b) curing the resin at a temperature of 80°C during at least 60 minutes. (a) adding aluminium phosphate as hardener in a concentration of 20 or 25% by weight of the resin to said silico-aluminate inorganic thermoset resin; and (b) curing the resin at a temperature of 80°C during at least 60 minutes.
Device (V, V') for controlling a current flow in an on-board system, said device comprising the following features: - a first electrical connection, a second electrical connection and a third electrical connection, - a first self-locking switch arranged between the first and the second connection (K1, K2) and controllable by means of a first control voltage applied to a fourth connection of the device (V, V'), wherein, in a closed state of the first switch, the first connection is electrically connectable to the second connection, - a second switch arranged between the first and the third connection (K1, K3) and controllable by means of a second control voltage, wherein, in a closed state of the second switch, the first connection is electrically connectable to the third connection, - an emergency power source for providing the voltage necessary for closing the first switch or for holding the first switch in the closed state, - a control arrangement for closing the first switch or for holding the first switch in the closed state by means of the voltage provided by the emergency power source when the control voltage applied to the fourth connection of the device (V, V') falls below a minimum voltage threshold value necessary to close the first switch or to hold the first switch in the closed state, - wherein the first switch, in the closed state controlled by the control arrangement, is configured to electrically connect the first connection to the second connection and to prevent a potential parasitic current flow (Ii) from the first connection via the open second switch to the third connection. - a first electrical connection, a second electrical connection and a third electrical connection, - a first self-locking switch arranged between the first and the second connection (K1, K2) and controllable by means of a first control voltage applied to a fourth connection of the device (V, V'), wherein, in a closed state of the first switch, the first connection is electrically connectable to the second connection, - a second switch arranged between the first and the third connection (K1, K3) and controllable by means of a second control voltage, wherein, in a closed state of the second switch, the first connection is electrically connectable to the third connection, - an emergency power source for providing the voltage necessary for closing the first switch or for holding the first switch in the closed state, - a control arrangement for closing the first switch or for holding the first switch in the closed state by means of the voltage provided by the emergency power source when the control voltage applied to the fourth connection of the device (V, V') falls below a minimum voltage threshold value necessary to close the first switch or to hold the first switch in the closed state, - wherein the first switch, in the closed state controlled by the control arrangement, is configured to electrically connect the first connection to the second connection and to prevent a potential parasitic current flow (Ii) from the first connection via the open second switch to the third connection.
A plant comprising: a source providing an oxygen containing acid gas comprising sulfur oxides and hydrogen sulfide, a reducing gas generator coupled to the source to receive the oxygen-containing acid gas and coupled to a source of fuel and a source of air and/or oxygen, to remove oxygen by combustion and to operate at a temperature of between 537-816°C and at a pressure of equal or less than 345 kPa (50 psia) to support a combustion process by air and/or oxygen to achieve a flame temperature and reaction conditions suitable to produce a reducing gas and to eliminate substantially all oxygen from the oxygen-containing acid gas and to thereby produce an oxygen-depleted gas that has a concentration of sulfur oxides and hydrogen sulfide of no more than 15 vol% and is enriched in hydrogen and carbon monoxide, a catalytic reactor which receives the oxygen-depleted gas from the reducing gas generator and contains a direct reduction catalyst to convert at least one of the sulfur oxides and hydrogen sulfide received from the oxygen-depleted gas to elemental sulfur which is recovered in a reactor effluent, wherein the direct reduction catalyst is selected such that it does not catalyze a Claus reaction or only catalyzes a Claus reaction to a degree of less than 10% with respect to the at least one of the sulfur oxides and hydrogen sulfide. a source providing an oxygen containing acid gas comprising sulfur oxides and hydrogen sulfide, a reducing gas generator coupled to the source to receive the oxygen-containing acid gas and coupled to a source of fuel and a source of air and/or oxygen, to remove oxygen by combustion and to operate at a temperature of between 537-816°C and at a pressure of equal or less than 345 kPa (50 psia) to support a combustion process by air and/or oxygen to achieve a flame temperature and reaction conditions suitable to produce a reducing gas and to eliminate substantially all oxygen from the oxygen-containing acid gas and to thereby produce an oxygen-depleted gas that has a concentration of sulfur oxides and hydrogen sulfide of no more than 15 vol% and is enriched in hydrogen and carbon monoxide, a catalytic reactor which receives the oxygen-depleted gas from the reducing gas generator and contains a direct reduction catalyst to convert at least one of the sulfur oxides and hydrogen sulfide received from the oxygen-depleted gas to elemental sulfur which is recovered in a reactor effluent, wherein the direct reduction catalyst is selected such that it does not catalyze a Claus reaction or only catalyzes a Claus reaction to a degree of less than 10% with respect to the at least one of the sulfur oxides and hydrogen sulfide.
A linear cleaning peristaltic metering pump, comprising a pump body, a hose fixing accessory and an anti-backflow accessory, wherein the hose fixing accessory is configured for arranging a working hose; the anti-backflow accessory is configured for clamping and loosening the working hose; and the pump body is configured for performing reciprocating motion to clamp or loosen the working hose, thereby realizing a pumping effect by metering pump; the anti-backflow accessory is in cooperation with the pump body; wherein the pump body comprises a roller lifting assembly, a roller hose-pressing assembly, a pump body outer cover assembly and a power transmission part; and the power transmission part is configured for driving the roller lifting assembly to perform lifting linear motion, so as to drive the roller hose-pressing assembly to move and to clamp or loosen the working hose, characterized in that the roller lifting assembly comprises a lifting screw assembly and a guide shaft; a middle section of the guide shaft is arranged on a linear bearing; two ends of the guide shaft are respectively connected with an upper guide shaft fixing plate and a lower guide shaft fixing plate; and the lifting screw assembly is connected to the lower guide shaft fixing plate and is driven by the power transmission part, so as to drive the guide shaft to perform lifting motion.
A solid state gel for use in a reference electrode of a pH sensor, the solid state gel comprising a reaction product of water, a buffer system for adjusting pH of the gel when in a liquid state, polyethylene glycol or its derivatives as a gelling agent and a reference electrolyte salt wherein the water, the buffer system, the polyethylene glycol or its derivatives and the reference electrolyte salt when mixed while in a liquid state form a mixture, characterized in that the mixture was subjected to Gamma irradiation to form the reaction product.
Control device for controlling a polyphase synchronous rotating electrical machine, of the type having an electronic control unit driving an inverter connected to an on-board electrical network supplied with power by a battery (B+) and intended to be connected to phase windings (u,v,w) of said polyphase synchronous rotating electrical machine, characterized in that said electronic control unit comprises: - acquisition means for acquiring a rotational speed (Ω) of said polyphase synchronous rotating electrical machine; - a peripheral for generating pulse width-modulated signals at a predetermined signal frequency, having at least one register for programming a duty cycle (a) and alignment (24, 25) of said pulse width-modulated signal; - comparison means for comparing said rotational speed (Ω) with a predetermined nominal rotational speed; - a central processing unit executing a first subroutine or a second subroutine periodically loading said programming register in order to generate said pulse width-modulated signals driving said inverter so as to produce pulse-width modulated first phase voltages (U1,V1,W1) or full-wave second phase voltages (U2,V2,W2) as a function of a state of said comparison means; - memory means for storing said first and second subroutines. - acquisition means for acquiring a rotational speed (Ω) of said polyphase synchronous rotating electrical machine; - a peripheral for generating pulse width-modulated signals at a predetermined signal frequency, having at least one register for programming a duty cycle (a) and alignment (24, 25) of said pulse width-modulated signal; - comparison means for comparing said rotational speed (Ω) with a predetermined nominal rotational speed; - a central processing unit executing a first subroutine or a second subroutine periodically loading said programming register in order to generate said pulse width-modulated signals driving said inverter so as to produce pulse-width modulated first phase voltages (U1,V1,W1) or full-wave second phase voltages (U2,V2,W2) as a function of a state of said comparison means; - memory means for storing said first and second subroutines.
Ceramic material of the general formula: Pb 1-(m/2)x M m x (Zr 1-y Ti y)O 3 + a-zPbTiO 3, where M is at least one element selected from: Nd, La, Ba, Sr, Sb, Bi, K, Na, and where: 0 ≤ x ≤ 0.1; 0.3 ≤ y ≤ 0.7; 0 ≤ z ≤ y; 0 < (a-z) ≤ 0.03, and m, corresponding to the valency of the respective metal M, has the value +1, +2 or +3.