mhurhangee/ep-ind-claims huggingface dataset:
A method of processing telephone calls by a call processor comprising the steps of: a) receiving a call from a customer via a telephone network at the call processor; b) connecting the call to an agent via the call processor; c) connecting to a secure data collection server via the Internet and receiving a unique identifier from the secure data collection server, the identifier identifying the agent session; d) transferring the call to the secure data collection server whilst the agent remains connected to the call processor by sending a command to the telephone network to divert the call to the secure data collection server and passing the unique identifier to the secure data collection server; and e) receiving said call and unique identifier from the secure data collection server and re-connecting the call to the agent via the call processor using the unique identifier received from the secure data collection server to connect the customer call back to the agent, the secure data collection server being arranged to remove sensitive data from the transmitted data such that the agent cannot perceive or record any sensitive data entered; the step of transferring the call to the secure data collection server comprising the sub-steps of: connecting to an on demand appliance; sending the unique identifier to the on demand appliance; the on demand appliance connecting to the secure data collection server; the on demand appliance sending the unique identifier to the secure data collection server. a) receiving a call from a customer via a telephone network at the call processor; b) connecting the call to an agent via the call processor; c) connecting to a secure data collection server via the Internet and receiving a unique identifier from the secure data collection server, the identifier identifying the agent session; d) transferring the call to the secure data collection server whilst the agent remains connected to the call processor by sending a command to the telephone network to divert the call to the secure data collection server and passing the unique identifier to the secure data collection server; and e) receiving said call and unique identifier from the secure data collection server and re-connecting the call to the agent via the call processor using the unique identifier received from the secure data collection server to connect the customer call back to the agent, the secure data collection server being arranged to remove sensitive data from the transmitted data such that the agent cannot perceive or record any sensitive data entered; connecting to an on demand appliance; sending the unique identifier to the on demand appliance; the on demand appliance connecting to the secure data collection server; the on demand appliance sending the unique identifier to the secure data collection server.
A protective cover for supporting a mobile terminal in a dual direction and a multi angle, comprising: a support sheet mounted in a recess of the protective cover formed at an outer surface of the protective cover; characterised by the support sheet comprising two groove lines such that the support sheet forms a lattice defining four lattice cells the support sheet mounted in the recess allowing at least one lattice cell of the support sheet to be in contact with the protective cover and having the remaining portion separated from the protective cover for supporting the mobile terminal.
Sensor system for detecting a level change in a reservoir, comprising a capacitive level sensor configured to measure a capacitance of a medium at a sensor tip, further configured to detect a level of a medium (103, 503) and to provide a measured value based on the level of the medium (103, 503); a control unit configured to provide a trigger value and to determine a level change if the measured value crosses the trigger value; characterized in that the control unit is configured to adapt the trigger value based on the measured value after the level change has been detected. a capacitive level sensor configured to measure a capacitance of a medium at a sensor tip, further configured to detect a level of a medium (103, 503) and to provide a measured value based on the level of the medium (103, 503); a control unit configured to provide a trigger value and to determine a level change if the measured value crosses the trigger value; characterized in that the control unit is configured to adapt the trigger value based on the measured value after the level change has been detected.
Device for detecting a malfunction of a valve/catheter assembly for shunting a cerebrospinal fluid, including: • a chamber (6, 16); • a laminar channel (4, 14) which leads to said chamber (6, 16), on either side thereof, and which is suitable for ensuring the flow of a shunted fluid, via said chamber (6, 16); • a pressure measurement sensor (7, 17) for measuring a pressure in said chamber (6, 16); • a flexible membrane (5, 15) which separates the sensor (7, 17) from the chamber (6, 16); • control and communication electronics (8, 9) suitable for exchanging with an external reader to transmit an ambulatory measurement by said sensor (7, 17), the sensor (7, 17) being mounted on the flexible membrane (5, 15) with which it is in contact, characterised in that the walls of the chamber are defined by a rigid box or a casing, the membrane (5, 15) covering all of the walls of said chamber (6, 16), the device being suitable for being implanted upstream of an intracranial valve of the shunting assembly for direct intracranial pressure measurement by the pressure sensor. • a chamber (6, 16); • a laminar channel (4, 14) which leads to said chamber (6, 16), on either side thereof, and which is suitable for ensuring the flow of a shunted fluid, via said chamber (6, 16); • a pressure measurement sensor (7, 17) for measuring a pressure in said chamber (6, 16); • a flexible membrane (5, 15) which separates the sensor (7, 17) from the chamber (6, 16); • control and communication electronics (8, 9) suitable for exchanging with an external reader to transmit an ambulatory measurement by said sensor (7, 17),
A method of producing a composite material molded article, comprising: enclosing a core fiber base material formed from unwoven fabric in a molding tool with the core fiber base material placed between a first reinforcing fiber base material and a second reinforcing fiber base material; and injecting matrix resin into the first and second reinforcing fiber base materials (10f, 20f) in the molding tool, and injecting foamable resin into the core fiber base material in the molding tool applying pressure and heating at the curing temperature of the matrix resin to cure the matrix resin, and to foam and solidify the foamable resin, so as to obtain, as a core member of the composite material molded article, a structure in which fibers of the unwoven fabric are integrated into a porous resin including numerous cells, wherein the foamable resin injection starts after the matrix resin injection starts. enclosing a core fiber base material formed from unwoven fabric in a molding tool with the core fiber base material placed between a first reinforcing fiber base material and a second reinforcing fiber base material; and injecting matrix resin into the first and second reinforcing fiber base materials (10f, 20f) in the molding tool, and injecting foamable resin into the core fiber base material in the molding tool applying pressure and heating at the curing temperature of the matrix resin to cure the matrix resin, and to foam and solidify the foamable resin, so as to obtain, as a core member of the composite material molded article, a structure in which fibers of the unwoven fabric are integrated into a porous resin including numerous cells, wherein the foamable resin injection starts after the matrix resin injection starts.
Display element comprising: - a semi-reflecting panel formed by a transparent plate having two principal faces (101A, 101B) connected by a leaf, this panel allowing the display, by reflection on one of said two principal faces, of an image to be displayed, - at least one light source, and - a support having a body, the semi-reflecting panel and said at least one light source being mounted on this body, characterized in that said at least one light source is arranged such as to emit rays of light directed towards the interior of the body of the support, and in that the body of the support is formed from an at least partially transparent material. - a semi-reflecting panel formed by a transparent plate having two principal faces (101A, 101B) connected by a leaf, this panel allowing the display, by reflection on one of said two principal faces, of an image to be displayed, - at least one light source, and - a support having a body, the semi-reflecting panel and said at least one light source being mounted on this body,
Grinding device for a slicing machine (10', 10") for cutting off slices from an in particular strand-shaped material to be cut, preferably food, wherein the grinding device comprises a grinding stone for sharpening a rotating and/or circumferentially movable circular blade of the slicing machine (10', 10") and a sharpening stone for deburring the circular blade, wherein the grinding device has a handle for moving the grinding stone and/or the sharpening stone to the circular blade, wherein the grinding device comprises a holder for mounting to a stop plate of the slicing machine (10', 10") with an insertion device for form-fit insertion into the stop plate, wherein the holder comprises a U-shaped plate reception with a gap for inserting the stop plate into the gap when the grinding device is pushed onto the stop plate and wherein the grinding device comprises a frame for covering at least one section of a cutting edge of the circular blade and for pivoting the grinding device from an installation position to an operating position, characterized in that a reception of the grinding device is provided for form-fit engagement around an end of a blade guarding ring of the slicing machine (10', 10"), wherein the reception is configured to engage around the end of the blade guarding ring when the stop plate is located at least at a predetermined distance from the circular blade in the direction of an axis of rotation of the circular blade and not to engage around the end of the blade guarding ring when the distance between the stop plate and the blade guarding ring in the direction of the axis of rotation of the circular blade is smaller than the predetermined distance, in that the reception is configured as a recess for inserting the end of the blade guarding ring, and in that the frame of the grinding device comprises cover plates (42a, 42b) for covering the cutting edge of the circular knife, wherein the grinding stone and the sharpening stone are arranged between the cover plates (42a, 42b). in that a reception of the grinding device is provided for form-fit engagement around an end of a blade guarding ring of the slicing machine (10', 10"), wherein the reception is configured to engage around the end of the blade guarding ring when the stop plate is located at least at a predetermined distance from the circular blade in the direction of an axis of rotation of the circular blade and not to engage around the end of the blade guarding ring when the distance between the stop plate and the blade guarding ring in the direction of the axis of rotation of the circular blade is smaller than the predetermined distance, in that the reception is configured as a recess for inserting the end of the blade guarding ring, and in that the frame of the grinding device comprises cover plates (42a, 42b) for covering the cutting edge of the circular knife, wherein the grinding stone and the sharpening stone are arranged between the cover plates (42a, 42b).
A method for manufacturing a composite sheet comprising polyethylene fibres which have a tenacity of at least 1.0 N/tex and a polymeric resin comprising the steps of a) providing polyethylene fibres which have a tenacity of at least 1.0 N/tex b) assembling the polyethylene fibres to form a sheet c) applying an aqueous suspension of the polymeric resin to the polyethylene fibres before, during or after assembling; d) at least partially drying the aqueous suspension of the polymeric resin applied in step c); to obtain a composite sheet upon completion of steps a), b), c) and d); e) optionally applying a temperature in the range from the melting temperature of the resin to 153°C to the sheet of step c) before, during and/or after step d) to at least partially melt the polymeric resin; and f) optionally applying a pressure to the composite sheet before, during and/or after step e) to at least partially compact the composite sheet, wherein the polymeric resin comprises a functionalized polymer which is a copolymer of ethylene and/or propylene with an ethylenically unsaturated monomer comprising a carboxylic acid group or a derivative thereof; and wherein said polymeric resin has a density as measured according to ISO1183 in the range from 860 to 930 kg/m 3, a peak melting temperature in the range from 40 to 140°C and a heat of fusion of at least 5 J/g (whereas the tenacity, the peak melting temperature and the heat of fusion are measured according to the description). a) providing polyethylene fibres which have a tenacity of at least 1.0 N/tex b) assembling the polyethylene fibres to form a sheet c) applying an aqueous suspension of the polymeric resin to the polyethylene fibres before, during or after assembling; d) at least partially drying the aqueous suspension of the polymeric resin applied in step c); to obtain a composite sheet upon completion of steps a), b), c) and d); e) optionally applying a temperature in the range from the melting temperature of the resin to 153°C to the sheet of step c) before, during and/or after step d) to at least partially melt the polymeric resin; and f) optionally applying a pressure to the composite sheet before, during and/or after step e) to at least partially compact the composite sheet, wherein the polymeric resin comprises a functionalized polymer which is a copolymer of ethylene and/or propylene with an ethylenically unsaturated monomer comprising a carboxylic acid group or a derivative thereof; and wherein said polymeric resin has a density as measured according to ISO1183 in the range from 860 to 930 kg/m 3, a peak melting temperature in the range from 40 to 140°C and a heat of fusion of at least 5 J/g (whereas the tenacity, the peak melting temperature and the heat of fusion are measured according to the description).
A method for determining a control reserve of one or plural wind turbines, for which a desired value for at least one electric variable is pre-set for the operation, and for which a control unit is provided that comprises a power curve which contains a maximum value of the electric variable depending on values of the wind, the method comprising the following steps: • the control unit determines a maximum value of the electric variable from the actual value of the wind via the power curve, and subtracts an actual value of the electric variable from it, • the control unit transmits the difference as control reserve to a higher-level control unit and/or to an utility, wherein the control reserve is the currently retrievable reserve. • the control unit determines a maximum value of the electric variable from the actual value of the wind via the power curve, and subtracts an actual value of the electric variable from it, • the control unit transmits the difference as control reserve to a higher-level control unit and/or to an utility, wherein the control reserve is the currently retrievable reserve.
A reciprocating compressor, comprising: a cylinder body defining a cylinder, the cylinder having a cylinder lateral wall and a cylinder axis, a piston movable inside the cylinder, at least one valve configured to selectively open and close a valve opening formed in the cylinder lateral wall, and at least a cylinder head (10, 11) that at least partially protrudes towards the piston inside the cylinder and that has a recessed surface at least partially facing the valve opening, characterized in that an intersection between at least a plane containing the cylinder axis and the recessed surface is a first curve having at least a convex part facing the valve opening, and that an intersection between at least one of three planes (P1, P2, P3) perpendicular to the cylinder axis and the recessed surface is a second, a third or a fourth curve having a concavity facing the valve opening. a cylinder body defining a cylinder, the cylinder having a cylinder lateral wall and a cylinder axis, a piston movable inside the cylinder, at least one valve configured to selectively open and close a valve opening formed in the cylinder lateral wall, and at least a cylinder head (10, 11) that at least partially protrudes towards the piston inside the cylinder and that has a recessed surface at least partially facing the valve opening, characterized in that an intersection between at least a plane containing the cylinder axis and the recessed surface is a first curve having at least a convex part facing the valve opening, and that an intersection between at least one of three planes (P1, P2, P3) perpendicular to the cylinder axis and the recessed surface is a second, a third or a fourth curve having a concavity facing the valve opening.
A method for producing a composite material of a metal oxide and conductive carbon, comprising: a preparation step to introduce a reaction solution comprising water, at least one compound with a transition metal selected from a group consisting of Mn, Fe, Co and Ni, and conductive carbon powder and having a pH in a range of 9 to 11 into a rotatable reactor; a supporting step to add shear stress and centrifugal force to the reaction solution by rotating the reactor so as to form a core of a hydroxide of the transition metal, disperse the core of a hydroxide of the transition metal obtained and the conductive carbon powder, and simultaneously support the hydroxide of the transition metal by the conductive carbon powder; and a heat treatment step to heat the conductive carbon powder supporting the hydroxide of the transition metal so as to transform the hydroxide of the transition metal supported by the conductive carbon powder to a nanoparticle of an oxide. a preparation step to introduce a reaction solution comprising water, at least one compound with a transition metal selected from a group consisting of Mn, Fe, Co and Ni, and conductive carbon powder and having a pH in a range of 9 to 11 into a rotatable reactor; a supporting step to add shear stress and centrifugal force to the reaction solution by rotating the reactor so as to form a core of a hydroxide of the transition metal, disperse the core of a hydroxide of the transition metal obtained and the conductive carbon powder, and simultaneously support the hydroxide of the transition metal by the conductive carbon powder; and a heat treatment step to heat the conductive carbon powder supporting the hydroxide of the transition metal so as to transform the hydroxide of the transition metal supported by the conductive carbon powder to a nanoparticle of an oxide.
Fiberballs having a core region and a shell region, wherein the fiber density in the core region is higher than the fiber density in the shell region and wherein at least 50 % by weight of the fibers, based on the total weight of the fibers contained in the fiberballs, have a length of at least 60 mm, preferably a length in the range of 60 mm to 120 mm, in particular a length in the range of 65 mm to 100 mm.
An alignment system for accurately setting the flow rate of a flow selector device that selectively fixes the flow rate of a fluid; the system comprising: a flow selector device including a fluid inlet, a fluid outlet and a flow rate selection mechanism that is rotated between a plurality of pre-selected positions corresponding to pre-determined flow rates; a knob providing a grip to rotate the flow rate selection mechanism, the knob comprising a body having a distal portion, a proximal portion, and at least one registering element; and characterised by comprising: a cover movable between an open position providing access to the knob and a closed position denying access to the knob, the cover further including at least one cover element that: (i) engages the distal portion of the knob when the registering element is misaligned with a pre-selected position preventing the cover from attaining its closed position, and (ii) engages with the registering element when the registering element is aligned with a pre-selected position allowing the cover to attain its closed position. a flow selector device including a fluid inlet, a fluid outlet and a flow rate selection mechanism that is rotated between a plurality of pre-selected positions corresponding to pre-determined flow rates; a knob providing a grip to rotate the flow rate selection mechanism, the knob comprising a body having a distal portion, a proximal portion, and at least one registering element; and characterised by comprising: a cover movable between an open position providing access to the knob and a closed position denying access to the knob, the cover further including at least one cover element that: (i) engages the distal portion of the knob when the registering element is misaligned with a pre-selected position preventing the cover from attaining its closed position, and (ii) engages with the registering element when the registering element is aligned with a pre-selected position allowing the cover to attain its closed position.
A control device for a hybrid vehicle, comprising: - a starting clutch disposed between a drive source and drive wheels (FR, FL, RR, RL), - a slip drive mode (WSC drive mode) in which the vehicle travels with the drive source placed under a rotation speed control at a higher rotation speed than an output side rotation speed of the starting clutch while performing a slip control on the starting clutch to achieve a value in accordance with a target drive torque (tFoO) which is set based on an accelerator pedal opening degree, - an engagement drive mode (HEV drive mode) in which the vehicle travels with the drive source placed under a torque control in accordance with the target drive torque (tFoO) while fully engaging the starting clutch, and - a clutch control mechanism that is configured to control a starting clutch transfer torque capacity at the time of the slip control, characterized in that the clutch control mechanism, when transitioning in mode from the slip drive mode to the engagement drive mode, is configured - to calculate a transfer torque capacity that ensures a same output shaft angle acceleration between a slip state and an engaged state of the starting clutch and - to deduct from this transfer torque capacity inertia components at a side of the drive source in order - to set the starting clutch transfer torque capacity at the slip state. - a starting clutch disposed between a drive source and drive wheels (FR, FL, RR, RL), - a slip drive mode (WSC drive mode) in which the vehicle travels with the drive source placed under a rotation speed control at a higher rotation speed than an output side rotation speed of the starting clutch while performing a slip control on the starting clutch to achieve a value in accordance with a target drive torque (tFoO) which is set based on an accelerator pedal opening degree, - an engagement drive mode (HEV drive mode) in which the vehicle travels with the drive source placed under a torque control in accordance with the target drive torque (tFoO) while fully engaging the starting clutch, and - a clutch control mechanism that is configured to control a starting clutch transfer torque capacity at the time of the slip control, - to calculate a transfer torque capacity that ensures a same output shaft angle acceleration between a slip state and an engaged state of the starting clutch and - to deduct from this transfer torque capacity inertia components at a side of the drive source in order - to set the starting clutch transfer torque capacity at the slip state.