mhurhangee/ep-ind-claims huggingface dataset:
A power supply structure, comprising a battery receiving casing for receiving at least two battery cells (410, 420), wherein the power supply structure further comprises a bottom plate provided with a first group of contacts and a second group of contacts, the bottom plate is disposed in the battery receiving casing; the power supply structure being configured such that, in a first serial-parallel connection state, when the at least two battery cells (410, 420) are received in the battery receiving casing, they are connected to the first group of contacts provided on the bottom plate, the at least two battery cells (410, 420) form a series connection relationship; and, in a second serial-parallel connection state, when the at least two battery cells (410, 420) are received in the battery receiving casing, they are connected to the second group of contacts provided on the bottom plate, the at least two battery cells (410, 420) form a parallel connection relationship; characterized in that the bottom plate has a first surface and a second surface opposite to the first surface, the first group of contacts are formed on the first surface, the second group of contacts are formed on the second surface, and is configured such that the serial-parallel connection state is switched, when the bottom plate is turned over and reinstalled; or the first group of contacts and the second group of contacts are disposed at different positions on a same surface of the bottom plate, configured such that the serial-parallel connection state is switched, when the bottom plate is rotated or moved.
Switching magnet valve, in particular as a pilot control valve for generating and controlling a control pressure in a compressed air brake system of a vehicle, comprising - a first duct for feeding in or discharging compressed air into or from the switching magnet valve, - a second duct for feeding in or discharging compressed air into or from the switching magnet valve, - a valve chamber comprising a valve seat for optionally releasing and interrupting the compressed air stream, and - a valve core with a drilled hole for conducting through the compressed air and a lateral face, characterized in that the valve chamber has a flow duct for compressed air adjacent to the lateral face of the valve core. - a first duct for feeding in or discharging compressed air into or from the switching magnet valve, - a second duct for feeding in or discharging compressed air into or from the switching magnet valve, - a valve chamber comprising a valve seat for optionally releasing and interrupting the compressed air stream, and - a valve core with a drilled hole for conducting through the compressed air and a lateral face,
A communication network for facilitating monitoring of an athletic activity, the communication network comprising: a base station; a first monitor configured to be coupled to an individual, wherein the first monitor includes a sensor for sensing a characteristic of the individual and/or is in wired or wireless communication with the sensor; and a second monitor, wherein the base station is configured to transmit a first beacon message, wherein, in response to receipt of the first beacon message, the first monitor is configured to transmit an endpoint message including a characteristic of the individual sensed by a sensor, wherein the base station is configured to receive the endpoint message, and, if the base station does not receive the endpoint message by a determined time, the base station is configured to transmit a second beacon signal, the second beacon signal including instructions to the second monitor to transmit the endpoint message, wherein the second monitor is configured to receive the endpoint message transmitted by the first monitor, and wherein, in response to receipt of the second beacon signal, the second monitor is configured to transmit the endpoint message. a base station; a first monitor configured to be coupled to an individual, wherein the first monitor includes a sensor for sensing a characteristic of the individual and/or is in wired or wireless communication with the sensor; and a second monitor, wherein the base station is configured to transmit a first beacon message, wherein, in response to receipt of the first beacon message, the first monitor is configured to transmit an endpoint message including a characteristic of the individual sensed by a sensor, wherein the base station is configured to receive the endpoint message, and, if the base station does not receive the endpoint message by a determined time, the base station is configured to transmit a second beacon signal, the second beacon signal including instructions to the second monitor to transmit the endpoint message, wherein the second monitor is configured to receive the endpoint message transmitted by the first monitor, and wherein, in response to receipt of the second beacon signal, the second monitor is configured to transmit the endpoint message.
Structure, comprising a thermocouple assembly for surface temperature measurement on a surface of the structure, the thermocouple assembly comprising - a sheathed thermocouple sensor cable, - a positioning pad, receiving and/or securing a thermocouple sensor end at a desired measuring point, - an insulation body, and - a shielding, characterized in that the positioning pad is mechanically connected to the shielding and the shielding is connected by one welding (300, 300') to the surface of the structure and a recessed portion of the shielding, corresponding to the shape and size of a protruding portion of the positioning pad and receiving the protruding portion therein, is covered and sealed by the welding (300, 300'). - a sheathed thermocouple sensor cable, - a positioning pad, receiving and/or securing a thermocouple sensor end at a desired measuring point, - an insulation body, and - a shielding,
A patterning process comprising, at least, the steps of: coating a chemically amplified negative resist composition containing, as main components, a base resin, which is soluble in alkali and which is made insoluble in alkali with the aid of an acid catalyst; and/or, a combination of a base resin with a crosslinking agent, which base resin is soluble in alkali and is made insoluble in alkali via reaction with the crosslinking agent with the aid of an acid catalyst; an acid generator; and a basic component, onto a mask blank formed with a chromium compound film; conducting, after a heat treatment, pattern exposure by a high energy radiation through a photomask, or pattern exposure by high energy radiation beam; conducting development by a developer, wherein, the basic component is one or more kinds of amine compounds; excepting for those having a nitrogen atom of amine included in a ring structure of an aromatic ring; and at least having a carboxyl group and having no hydrogen atoms covalently bonded to a nitrogen atom as a basic center, wherein, the nitrogen atom of the amine compound has three single bonds combined to different carbon atoms, respectively. coating a chemically amplified negative resist composition containing, as main components, a base resin, which is soluble in alkali and which is made insoluble in alkali with the aid of an acid catalyst; and/or, a combination of a base resin with a crosslinking agent, which base resin is soluble in alkali and is made insoluble in alkali via reaction with the crosslinking agent with the aid of an acid catalyst; an acid generator; and a basic component, onto a mask blank formed with a chromium compound film; conducting, after a heat treatment, pattern exposure by a high energy radiation through a photomask, or pattern exposure by high energy radiation beam; a base resin, which is soluble in alkali and which is made insoluble in alkali with the aid of an acid catalyst; and/or, a combination of a base resin with a crosslinking agent, which base resin is soluble in alkali and is made insoluble in alkali via reaction with the crosslinking agent with the aid of an acid catalyst; an acid generator; and a basic component, onto a mask blank formed with a chromium compound film; conducting, after a heat treatment, pattern exposure by a high energy radiation through a photomask, or pattern exposure by high energy radiation beam; conducting development by a developer, wherein, the basic component is one or more kinds of amine compounds; excepting for those having a nitrogen atom of amine included in a ring structure of an aromatic ring; and at least having a carboxyl group and having no hydrogen atoms covalently bonded to a nitrogen atom as a basic center, wherein, the nitrogen atom of the amine compound has three single bonds combined to different carbon atoms, respectively.
A method for making absorbent articles, the method comprising steps of: rotating a pattern roll about an axis of rotation extending axially in a cross direction, the pattern roll comprising bonding surfaces extending radially outward from the axis of rotation; providing a pressing surface adjacent the pattern roll to define a nip between the pattern roll and the pressing surface; advancing a first substrate and a second substrate through in a machine direction through the nip at a first speed S1 of at least 100 meters per minute; providing elastic strands wound onto a beam; rotating the beam to unwind the elastic strands from the beam; advancing the elastic strands from the rotating beam; stretching the elastic strands; and bonding the stretched elastic strands between the first substrate and the second substrate at the nip to form an elastomeric laminate, wherein the bonding surfaces of the pattern roll comprise a total runout of less than 10 μm. rotating a pattern roll about an axis of rotation extending axially in a cross direction, the pattern roll comprising bonding surfaces extending radially outward from the axis of rotation; providing a pressing surface adjacent the pattern roll to define a nip between the pattern roll and the pressing surface; advancing a first substrate and a second substrate through in a machine direction through the nip at a first speed S1 of at least 100 meters per minute; providing elastic strands wound onto a beam; rotating the beam to unwind the elastic strands from the beam; advancing the elastic strands from the rotating beam; stretching the elastic strands; and bonding the stretched elastic strands between the first substrate and the second substrate at the nip to form an elastomeric laminate, wherein the bonding surfaces of the pattern roll comprise a total runout of less than 10 μm.
Method of manufacturing a sheet metal product including the steps of: a) providing a molten magnesium alloy (10, 10') consisting of - 0.4 wt% to 2 wt% Zn, - 0.4 wt% to 1 wt% Ca, - 0.03 wt% to 0.3 wt% Zr, - 0.0 wt% to 1.0 wt% rare earth elements and/or Sr, - unavoidable impurities, and - the balance being Mg b) forming a strip (10, 10") in a twin roll casting process, c) performing a warm rolling process on the strip (10, 10") and d) performing a subsequent heat treatment on the strip (10, 10") at 300°C to 450°C for 0,5 min to 60 min. a) providing a molten magnesium alloy (10, 10') consisting of - 0.4 wt% to 2 wt% Zn, - 0.4 wt% to 1 wt% Ca, - 0.03 wt% to 0.3 wt% Zr, - 0.0 wt% to 1.0 wt% rare earth elements and/or Sr, - unavoidable impurities, and - the balance being Mg - 0.4 wt% to 2 wt% Zn, - 0.4 wt% to 1 wt% Ca, - 0.03 wt% to 0.3 wt% Zr, - 0.0 wt% to 1.0 wt% rare earth elements and/or Sr, - unavoidable impurities, and - the balance being Mg b) forming a strip (10, 10") in a twin roll casting process, c) performing a warm rolling process on the strip (10, 10") and d) performing a subsequent heat treatment on the strip (10, 10") at 300°C to 450°C for 0,5 min to 60 min.
A hydraulic and pneumatic control circuit for a turbojet, the circuit comprising: - a main hydraulic line having an oil/fuel heat exchanger with a function of transferring heat from the oil flowing in an oil circuit of the turbojet to the fuel flowing in the main hydraulic line; - a first hydraulic line for feeding fuel to a combustion chamber of the turbojet; - a second hydraulic line for feeding fuel to one or more hydraulic actuators (20, 22) serving to control variable geometry equipment of the turbojet, each hydraulic actuator being fed with fuel via an electrohydraulic servovalve, the first and second hydraulic lines (14, 18) being connected to each other upstream from the combustion chamber and the hydraulic actuators in order to form the main hydraulic line; and - a pneumatic line for feeding air to a pneumatic control member for bleed valves of a compressor of the turbojet and a blade tip clearance control valve of a turbine of the turbojet; characterized in that for heating the fuel flowing in the second hydraulic line without needing the oil/fuel heat exchanger of the main line, the circuit further comprises a fuel/air heat exchanger positioned on the second hydraulic line upstream from the hydraulic servovalve and on the pneumatic line upstream from the pneumatic control member in order to transfer heat from the air flowing in the pneumatic line to the fuel flowing in the second hydraulic line. - a main hydraulic line having an oil/fuel heat exchanger with a function of transferring heat from the oil flowing in an oil circuit of the turbojet to the fuel flowing in the main hydraulic line; - a first hydraulic line for feeding fuel to a combustion chamber of the turbojet; - a second hydraulic line for feeding fuel to one or more hydraulic actuators (20, 22) serving to control variable geometry equipment of the turbojet, each hydraulic actuator being fed with fuel via an electrohydraulic servovalve, the first and second hydraulic lines (14, 18) being connected to each other upstream from the combustion chamber and the hydraulic actuators in order to form the main hydraulic line; and - a pneumatic line for feeding air to a pneumatic control member for bleed valves of a compressor of the turbojet and a blade tip clearance control valve of a turbine of the turbojet; characterized in that for heating the fuel flowing in the second hydraulic line without needing the oil/fuel heat exchanger of the main line, the circuit further comprises a fuel/air heat exchanger positioned on the second hydraulic line upstream from the hydraulic servovalve and on the pneumatic line upstream from the pneumatic control member in order to transfer heat from the air flowing in the pneumatic line to the fuel flowing in the second hydraulic line.
An angle detection device comprising: a first magnetic detection unit configured to be provided in a detection area to which a rotational magnetic field is applied so as to obtain a detection output approximating a sine wave being a function of a rotation angle of the rotational magnetic field; a second magnetic detection unit configured to be provided in the detection area to which the rotational magnetic field is applied so as to obtain a detection output approximating a cosine wave being a function of the rotation angle of the rotational magnetic field; a switching circuit configured to cut out a plurality of partial detection outputs (S1c-S4c) approximating a linear function from analog detection outputs (S1-S4) obtained from the first and second magnetic detection units as is or by performing gain adjustment; and a bias adding circuit configured to enable the plurality of partial detection outputs (S1c-S4c) to be consecutive by applying a bias power to each of the partial detection outputs (S1c-S4c) so that the consecutive partial detection outputs approximate a linear function and are used as angle detection outputs. a first magnetic detection unit configured to be provided in a detection area to which a rotational magnetic field is applied so as to obtain a detection output approximating a sine wave being a function of a rotation angle of the rotational magnetic field; a second magnetic detection unit configured to be provided in the detection area to which the rotational magnetic field is applied so as to obtain a detection output approximating a cosine wave being a function of the rotation angle of the rotational magnetic field; a switching circuit configured to cut out a plurality of partial detection outputs (S1c-S4c) approximating a linear function from analog detection outputs (S1-S4) obtained from the first and second magnetic detection units as is or by performing gain adjustment; and a bias adding circuit configured to enable the plurality of partial detection outputs (S1c-S4c) to be consecutive by applying a bias power to each of the partial detection outputs (S1c-S4c) so that the consecutive partial detection outputs approximate a linear function and are used as angle detection outputs.
A method of forming an electrode substrate useful for forming a lithium ion battery comprising the steps of: (a) providing valve metal substrate material formed of filaments of a valve metal selected from the group consisting of tantalum, niobium, an alloy of tantalum and an alloy of niobium and hafnium, not thicker than about 10 μm; (b) forming the filaments of step (a) into a mat or porous sheet; and (c) subjecting the mat or porous sheet of step (b) and silica to a magnesiothermic reaction with magnesium to produce a coating of silicon inside a stabilizing magnesium oxide coating, wherein the silicon coating is metallurgically bonded to the valve metal filaments. (a) providing valve metal substrate material formed of filaments of a valve metal selected from the group consisting of tantalum, niobium, an alloy of tantalum and an alloy of niobium and hafnium, not thicker than about 10 μm; (b) forming the filaments of step (a) into a mat or porous sheet; and (c) subjecting the mat or porous sheet of step (b) and silica to a magnesiothermic reaction with magnesium to produce a coating of silicon inside a stabilizing magnesium oxide coating, wherein the silicon coating is metallurgically bonded to the valve metal filaments.
A catheter (84; 128) comprising: an elongated catheter body having a distal portion and at least one lumen extending longitudinally therethrough; and a mapping assembly (96; 150) mounted at the distal portion of the catheter body and comprising a plurality of splines (98; 152), each of the splines having a proximal end disposed at the distal portion of the catheter body and a distal end and configured as a Fibonacci spiral arm (40; 72, 74; 130) that diverges outwardly from the proximal end, wherein each of the splines comprises: a support arm having shape memory; a non-conductive covering in surrounding relation to the support arm; at least one location sensor mounted at or near the distal end; a plurality of electrodes mounted in surrounding relation to the non-conductive covering; and a plurality of electrode lead wires extending within the non-conductive covering, each electrode lead wire being attached to a corresponding one of the electrodes, wherein a Fibonacci spiral arm is a spiral arm formed of successive quarter-circular arcs, in which the nth quarter-circular arc has a radius R n given by: R 1 = R 2 = 1, for n = 1 or n = 2, and R n = R n-1 + R n-2, for n > 2; and wherein R 1 is the radial distance from an origin at the proximal end. an elongated catheter body having a distal portion and at least one lumen extending longitudinally therethrough; and a mapping assembly (96; 150) mounted at the distal portion of the catheter body and comprising a plurality of splines (98; 152), each of the splines having a proximal end disposed at the distal portion of the catheter body and a distal end and configured as a Fibonacci spiral arm (40; 72, 74; 130) that diverges outwardly from the proximal end, wherein each of the splines comprises: a support arm having shape memory; a non-conductive covering in surrounding relation to the support arm; at least one location sensor mounted at or near the distal end; a plurality of electrodes mounted in surrounding relation to the non-conductive covering; and a plurality of electrode lead wires extending within the non-conductive covering, each electrode lead wire being attached to a corresponding one of the electrodes, wherein a Fibonacci spiral arm is a spiral arm formed of successive quarter-circular arcs, in which the nth quarter-circular arc has a radius R n given by: a support arm having shape memory; a non-conductive covering in surrounding relation to the support arm; at least one location sensor mounted at or near the distal end; a plurality of electrodes mounted in surrounding relation to the non-conductive covering; and a plurality of electrode lead wires extending within the non-conductive covering, each electrode lead wire being attached to a corresponding one of the electrodes, wherein a Fibonacci spiral arm is a spiral arm formed of successive quarter-circular arcs, in which the nth quarter-circular arc has a radius R n given by: R 1 = R 2 = 1, for n = 1 or n = 2, and R n = R n-1 + R n-2, for n > 2; and wherein R 1 is the radial distance from an origin at the proximal end.
A coupling system notably for coupling a trailer vehicle to a tractor vehicle, of the type comprising a hook-shaped device with a coupling ball mounted on the tractor vehicle and a coupling head mounted on the trailer vehicle and intended to cooperate with the ball of the hook-shaped device so as to thereby ensure said coupling, and a secondary safety coupling device comprising linking means, such as chain or cable means, positioned between attachment points located on the side of the tractor vehicle and of the trailer vehicle respectively, and the secondary safety coupling device including an attachment point on the side of the tractor vehicle, which is provided on the ball hook; characterized in that the attachment point is made in one piece with the coupling hook.
Use of a catalyst in a dehydration process to convert isobutanol into the corresponding olefin wherein said catalyst comprises a phosphorus modified zeolite and is made by a method comprising the following steps in this order, a) the phosphorus is introduced into a zeolite comprising at least one ten members ring in the structure in an amount of 0.5 to 30 wt%, b) the phosphorus modified zeolite of step a) is mixed with at least a component selected among one or more binders containing silica and clays, b)* making a catalyst body from mixture b) formed into extrudates, spheres or pills, d) a calcination step at a temperature of 350 to 900°C for a duration of 1 to 48h and with steam in concentration from 10 to 90 vol%. a) the phosphorus is introduced into a zeolite comprising at least one ten members ring in the structure in an amount of 0.5 to 30 wt%, b) the phosphorus modified zeolite of step a) is mixed with at least a component selected among one or more binders containing silica and clays, b)* making a catalyst body from mixture b) formed into extrudates, spheres or pills, d) a calcination step at a temperature of 350 to 900°C for a duration of 1 to 48h and with steam in concentration from 10 to 90 vol%.