mhurhangee/ep-ind-claims huggingface dataset:
A machine tool, in particular a grinding machine, for machining workpieces, comprising a workpiece holder for holding a workpiece, a spindle head for holding a tool, in particular a grinding wheel, a handling device for an automated workpiece change, and a measuring device for detecting at least one workpiece parameter, wherein the handling device comprises at least one handling member, in particular at least one gripping member, wherein the measuring device comprises at least one measuring member, and wherein the handling device and the measuring device are coupled to a common positioning drive, wherein the handling device and the measuring device have interconnected base bodies (82, 84), which are rigidly coupled relative to one another, and wherein the positioning drive is configured to displace the handling device and the measuring device relative to a longitudinal axis that is defined by the workpiece holder, and wherein the positioning drive is arranged as a swivel drive, characterized in that the handling device and the measuring device are jointly displaceable by the positioning drive between a working position, in which machining the workpiece is possible, and at least one secondary position, in which a loading operation or unloading operation is possible.
Dissolved oxygen removal system for removing dissolved oxygen from water (w) containing dissolved oxygen, comprising a gas-liquid contactor means being configured to dissolve a reducing agent in said water (w) containing dissolved oxygen, and an electrical discharging means being configured to generate oxygen radicals (O ∗) in the water (w) containing dissolved oxygen and/or in dissolved oxygen containing water (w') in which said reducing agent has been dissolved, wherein the gas-liquid contactor means and the electrical discharging means are configured as one single, integrated device that comprises a water through-flow space in which at least one, preferably a plurality of electrode pair(s) (51, 51') being configured for the application of an electrical potential difference and having a narrow gap configuration is/are arranged and wherein the integrated device is configured to feed said water (w) containing dissolved oxygen into said water through-flow space, to dissolve, in said water through-flow space, said reducing agent in said water (w, w') containing dissolved oxygen, to generate, in said water through-flow space, said oxygen radicals (O ∗) in said water (w, w') containing dissolved oxygen, and to discharge the water from said water through-flow space, characterized by further comprising a reducing agent generating device being configured to generate said reducing agent to be dissolved in said water (w) containing dissolved oxygen, wherein said reducing agent generating device is configured to generate hydrogen by water electrolysis. a gas-liquid contactor means being configured to dissolve a reducing agent in said water (w) containing dissolved oxygen, and an electrical discharging means being configured to generate oxygen radicals (O ∗) in the water (w) containing dissolved oxygen and/or in dissolved oxygen containing water (w') in which said reducing agent has been dissolved, wherein the gas-liquid contactor means and the electrical discharging means are configured as one single, integrated device that comprises a water through-flow space in which at least one, preferably a plurality of electrode pair(s) (51, 51') being configured for the application of an electrical potential difference and having a narrow gap configuration is/are arranged and wherein the integrated device is configured to feed said water (w) containing dissolved oxygen into said water through-flow space, to dissolve, in said water through-flow space, said reducing agent in said water (w, w') containing dissolved oxygen, to generate, in said water through-flow space, said oxygen radicals (O ∗) in said water (w, w') containing dissolved oxygen, and to discharge the water from said water through-flow space, further comprising a reducing agent generating device being configured to generate said reducing agent to be dissolved in said water (w) containing dissolved oxygen, wherein said reducing agent generating device is configured to generate hydrogen by water electrolysis.
A method for generating a main program code intended to be executed by a main processing unit and an auxiliary program code intended to be executed by an auxiliary processing unit for checking the control flow of the main program code, characterised in that the generation of the main program code includes the generation of at least one main indirect branch instruction (INSPF4), the generation of the auxiliary program code comprises a generation of at least one auxiliary indirect branch instruction (INSXF4) associated with said at least one main indirect branch instruction, and the generation of the main program code further comprises at least one insertion of at least one synchronisation information (@WD_ti) intended to be processed by the auxiliary processing unit and configured to allow at least one synchronisation between a portion of auxiliary program code and a portion of main program code resulting respectively from the execution of said at least one auxiliary indirect branch instruction (INSXF4) and the execution of said at least one main indirect branch instruction (INSPF4).
A wearable display device comprising: a control circuit; and a first projector; wherein the first projector comprises: a first light source and a second light source configured to project a first light to an object; a light guide element configured to guide the first light reflected on the object to a beam splitter; the beam splitter configured to reflect the first light towards an image sensor; the image sensor configured to generate an electrical image signal based on the first light and output the electrical image signal to the control circuit; a first actuator configured to move the light guide element and the first light source fixed to the light guide element along a longitudinal direction of the light guide element based on a first control signal from the control circuit; and a second actuator configured to move the image sensor along the longitudinal direction of the light guide element based on a second control signal from the control circuit. a control circuit; and a first projector; wherein the first projector comprises: a first light source and a second light source configured to project a first light to an object; a light guide element configured to guide the first light reflected on the object to a beam splitter; the beam splitter configured to reflect the first light towards an image sensor; the image sensor configured to generate an electrical image signal based on the first light and output the electrical image signal to the control circuit; a first actuator configured to move the light guide element and the first light source fixed to the light guide element along a longitudinal direction of the light guide element based on a first control signal from the control circuit; and a second actuator configured to move the image sensor along the longitudinal direction of the light guide element based on a second control signal from the control circuit. a first light source and a second light source configured to project a first light to an object; a light guide element configured to guide the first light reflected on the object to a beam splitter; the beam splitter configured to reflect the first light towards an image sensor; the image sensor configured to generate an electrical image signal based on the first light and output the electrical image signal to the control circuit; a first actuator configured to move the light guide element and the first light source fixed to the light guide element along a longitudinal direction of the light guide element based on a first control signal from the control circuit; and a second actuator configured to move the image sensor along the longitudinal direction of the light guide element based on a second control signal from the control circuit.
Sail propulsion element, comprising: a. a mast, b. an inflatable sail consisting essentially of two substantially fluidtight adjacent surfaces joined together along their periphery, thus forming at least one closed cavity between them, said sail comprising an upper part, a lower part, a leading edge and a trailing edge, the sail comprising various cambers forming bulges along its entire length, c. at least one air conduit positioned between the inside and the outside of the cavity of the sail, d. at least one means for injecting air into said cavity, the sail once inflated having a profile that remains permanently symmetrical, irrespective of the movement of said propulsion element, or of the direction or strength of the wind, e. a headboard positioned on the upper part of the sail, f. a sail receptacle positioned between the leading edge and the trailing edge on the lower part of the sail, characterized in that it comprises at least one guide line positioned in the closed cavity of said sail, for the manoeuvres of hoisting and dropping the sail, said guide line extending from the leading edge to the trailing edge of said sail, passing through the headboard and the sail receptacle. a. a mast, b. an inflatable sail consisting essentially of two substantially fluidtight adjacent surfaces joined together along their periphery, thus forming at least one closed cavity between them, said sail comprising an upper part, a lower part, a leading edge and a trailing edge, the sail comprising various cambers forming bulges along its entire length, c. at least one air conduit positioned between the inside and the outside of the cavity of the sail, d. at least one means for injecting air into said cavity, the sail once inflated having a profile that remains permanently symmetrical, irrespective of the movement of said propulsion element, or of the direction or strength of the wind, e. a headboard positioned on the upper part of the sail, f. a sail receptacle positioned between the leading edge and the trailing edge on the lower part of the sail,
An automatic needle retraction assembly comprising: a guide dilator comprising an axial bore; a hub at a proximal end of the guide dilator; a rigid guide needle slidably mounted within the guide dilator and comprising a distal piercing end, an axial bore, and a needle proximal end; a fluid triggered actuator in the hub configured to urge the needle proximally relative to the guide dilator on contact with a fluid from a first position to a second position wherein, in the first position, the distal piercing end of the needle extends out from a distal end of the guide dilator; and in the second position, the distal piercing end of the needle is retracted within the bore of the guide dilator; wherein the fluid triggered actuator comprises: an aqueous fluid expandable material selected from the group consisting of: a hydrogel, a dry compressed foam, a shape-memory alloy, and a dehydrated hydrophilic polymer; or an aqueous fluid sensitive detent positioned between the needle and guide dilator hub which detent prevents the needle from sliding proximally, and wherein the detent is configured to soften or dissolve on contact with an aqueous fluid to release the needle to slide proximally in the guide dilator. a guide dilator comprising an axial bore; a hub at a proximal end of the guide dilator; a rigid guide needle slidably mounted within the guide dilator and comprising a distal piercing end, an axial bore, and a needle proximal end; a fluid triggered actuator in the hub configured to urge the needle proximally relative to the guide dilator on contact with a fluid from a first position to a second position wherein, in the first position, the distal piercing end of the needle extends out from a distal end of the guide dilator; and in the second position, the distal piercing end of the needle is retracted within the bore of the guide dilator; wherein the fluid triggered actuator comprises: an aqueous fluid expandable material selected from the group consisting of: a hydrogel, a dry compressed foam, a shape-memory alloy, and a dehydrated hydrophilic polymer; or an aqueous fluid sensitive detent positioned between the needle and guide dilator hub which detent prevents the needle from sliding proximally, and wherein the detent is configured to soften or dissolve on contact with an aqueous fluid to release the needle to slide proximally in the guide dilator. an aqueous fluid expandable material selected from the group consisting of: a hydrogel, a dry compressed foam, a shape-memory alloy, and a dehydrated hydrophilic polymer; or an aqueous fluid sensitive detent positioned between the needle and guide dilator hub which detent prevents the needle from sliding proximally, and wherein the detent is configured to soften or dissolve on contact with an aqueous fluid to release the needle to slide proximally in the guide dilator.
Apparatus (56, 58) for use in a mobile communications system comprising an arrangement of at least one base station (52, 54) configured to communicate data to and/or from different classes of apparatus via respective ones of a plurality of different carriers (60, 62, 64, 66) of a wireless access interface; wherein the apparatus is able to synchronise to different ones of the plurality of different carriers; wherein the apparatus is operable to synchronise with one of the plurality of carriers to begin a camp-on procedure for that carrier, and wherein the apparatus is further operable to determine whether or not to continue with the camp-on procedure in dependence on an aspect of physical layer signalling associated with a control channel of the carrier with which it has synchronised, wherein the aspect of physical layer signalling comprises a cell-barred indicator for indicating whether or not the carrier is suitable for being selected by a particular class of apparatus, wherein the apparatus is operable to seek to synchronise with another one of the plurality of different carriers and begin another camp-on procedure in the event the apparatus determines to not continue with a camp-on procedure with a carrier with which it has synchronised.
Process for producing a carboxylic acid ester from an organic phase resulting from an esterification reaction between a carboxylic acid and an alcohol, said organic phase comprising at least predominantly the carboxylic acid ester and to a minor extent the alcohol, water and traces of carboxylic acid, characterized in that it comprises a separation stage during which the organic phase is depleted in alcohol and freed from the carboxylic acid by a liquid/liquid extraction operation by bringing said organic phase into contact with an aqueous phase which makes it possible to extract the alcohol and the carboxylic acid present in the organic phase toward the aqueous phase, and in that the organic phase comprising at least predominantly the carboxylic acid ester and to a minor extent the alcohol, water and traces of carboxylic acid results from the following stages: a) esterification reaction between the carboxylic acid and the alcohol, in the presence of a homogeneous or heterogeneous catalyst, b) distillation of the reaction medium resulting from stage a), making it possible to obtain, at the distillation column top, a vapor stream comprising predominantly the carboxylic acid ester and to a minor extent alcohol, water and traces of carboxylic acid, c) condensation of the vapor stream resulting from stage b), d) separation of the organic and aqueous phases, in particular by settling, in that the alcohol and the carboxylic acid are introduced and in stage a) with a carboxylic acid/alcohol molar ratio of between 7 and 25, the carboxylic acid being acetic acid and the alcohol being chosen from ethanol, butanol, n-propanol and cyclohexanol, and in that the ratio of the flow rate of the organic phase to the flow rate of the aqueous phase at the start of the liquid/liquid extraction stage is between 4 and 8. a) esterification reaction between the carboxylic acid and the alcohol, in the presence of a homogeneous or heterogeneous catalyst, b) distillation of the reaction medium resulting from stage a), making it possible to obtain, at the distillation column top, a vapor stream comprising predominantly the carboxylic acid ester and to a minor extent alcohol, water and traces of carboxylic acid, c) condensation of the vapor stream resulting from stage b), d) separation of the organic and aqueous phases, in particular by settling, in that the alcohol and the carboxylic acid are introduced and in stage a) with a carboxylic acid/alcohol molar ratio of between 7 and 25, the carboxylic acid being acetic acid and the alcohol being chosen from ethanol, butanol, n-propanol and cyclohexanol, and in that the ratio of the flow rate of the organic phase to the flow rate of the aqueous phase at the start of the liquid/liquid extraction stage is between 4 and 8.
A method performed by a User Equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, configuration information for reporting assistance information associated with overheating; detecting the overheating; and transmitting, to the base station, the assistance information including first information indicating a UE's preference on a reduced bandwidth associated with at least one of a first frequency range or a second frequency range, wherein a first frequency corresponding to the first frequency range is lower than a second frequency corresponding to the second frequency range, and wherein the first information includes at least one value for a maximum aggregated bandwidth of an uplink carrier or a downlink carrier for each of the at least one of the first frequency range or the second frequency range. receiving, from a base station, configuration information for reporting assistance information associated with overheating; detecting the overheating; and transmitting, to the base station, the assistance information including first information indicating a UE's preference on a reduced bandwidth associated with at least one of a first frequency range or a second frequency range, wherein a first frequency corresponding to the first frequency range is lower than a second frequency corresponding to the second frequency range, and wherein the first information includes at least one value for a maximum aggregated bandwidth of an uplink carrier or a downlink carrier for each of the at least one of the first frequency range or the second frequency range.
Gas valve for dosing a gaseous fuel into an intake tract of an internal combustion engine, comprising an electromagnet for acting on a reciprocating armature which is loaded in the direction of at least one valve seat by the spring force of a spring, wherein a damping device which comprises a first fluid-filled, variable damping volume (5.1), which is separated in a gas-tight manner from a region which is charged with the gas to be dosed in, is provided for reducing the speed of the armature at least over a partial range of its stroke, characterized in that the damping device comprises a second fluid-filled, variable damping volume (5.2), wherein the damping volumes (5.1, 5.2) are connected via a throttle, wherein the throttle is formed in a throttle plate which is arranged between the first and the second damping volume (5.1, 5.2) and which is connected fixedly to the armature or is prestressed axially against the armature by means of the spring force of the spring.
A fluidized person support structure, comprising a fluidizable medium, a fluid supply configured to supply fluid that flows through the fluidizable medium, a sensor where a physical property of the sensor changes as the fluidizable medium is fluidized by the fluid, and a controller electrically coupled to the fluid supply and the sensor, characterized in that said controller is configured to calculate a desirable flow rate as a function of at least one input from the sensor as the rate at which fluid flows through the fluidizable medium is changed from a first rate to a second rate, the controller causing the fluid supply to supply fluid at the desirable flow rate.
An animal litter product comprising a composition comprising (i) an absorbent material which is a clay and (ii) a biocidal composite which comprises an anti-bacterial transition metal compound and a carrier, wherein the transition metal compound is supported on the carrier material; and wherein the carrier material is titanium dioxide; and wherein the transition metal compound is present in the composition in an amount of less than 0.60ppm; and wherein the transition metal compound is silver chloride.
A transducer modulus (11; 51; 91), comprising a supporting substrate and a cap, which extends over the supporting substrate and defines therewith a chamber, characterized in that it further comprises: a first MEMS transducer (12'; 53), which has a first sensitive element (19; 59) facing the chamber and configured to detect a first environmental quantity and generating a first transduced signal exclusively as a function of the first environmental quantity detected; and a second MEMS transducer (12"; 54), which has a second sensitive element (29; 69) facing the supporting substrate and configured to detect a second environmental quantity and generate a second transduced signal exclusively as a function of the second environmental quantity detected, wherein said cap has a first window configured to form an access path of the first environmental quantity towards the first sensitive element (19; 59) only, and the supporting substrate has a second window configured to form an access path of the second environmental quantity towards the second sensitive element (29; 69) only, and wherein: i) the first MEMS transducer (12'; 53) and the second MEMS transducer (12"; 54) are integrated on opposite sides (16a, 16b) of a same monolithic body of semiconductor material, or ii) the first MEMS transducer (12'; 53) is integrated in a first chip and the second MEMS transducer (12"; 54) is integrated in a second chip, the first and second chips being stacked on one another. a first MEMS transducer (12'; 53), which has a first sensitive element (19; 59) facing the chamber and configured to detect a first environmental quantity and generating a first transduced signal exclusively as a function of the first environmental quantity detected; and a second MEMS transducer (12"; 54), which has a second sensitive element (29; 69) facing the supporting substrate and configured to detect a second environmental quantity and generate a second transduced signal exclusively as a function of the second environmental quantity detected, wherein said cap has a first window configured to form an access path of the first environmental quantity towards the first sensitive element (19; 59) only, and the supporting substrate has a second window configured to form an access path of the second environmental quantity towards the second sensitive element (29; 69) only, and wherein: i) the first MEMS transducer (12'; 53) and the second MEMS transducer (12"; 54) are integrated on opposite sides (16a, 16b) of a same monolithic body of semiconductor material, or ii) the first MEMS transducer (12'; 53) is integrated in a first chip and the second MEMS transducer (12"; 54) is integrated in a second chip, the first and second chips being stacked on one another. i) the first MEMS transducer (12'; 53) and the second MEMS transducer (12"; 54) are integrated on opposite sides (16a, 16b) of a same monolithic body of semiconductor material, or ii) the first MEMS transducer (12'; 53) is integrated in a first chip and the second MEMS transducer (12"; 54) is integrated in a second chip, the first and second chips being stacked on one another.