mhurhangee/ep-ind-claims huggingface dataset:
A limb for an archery bow, the limb comprising: an outer elongate member formed of a first material and comprising an interior surface and an exterior surface; an inner elongate member formed of a second material and comprising an interior surface and an exterior surface; and a core member formed of a third material and sandwiched between the outer elongate member and the inner elongate member, the core member being coupled with at least a portion of each of the interior surfaces (566, 567) of the outer elongate member and the inner elongate member; wherein: the outer elongate member and the inner elongate member are configured to move relative to each other when the limb is bent; and the first material and the second material are each stiffer than the third material; the limb being characterized in that the outer elongate member and the inner elongate member each comprise a central member (570, 574) and a pair of leg members (572, 576) that extend from and cooperate with the central member (570, 574) to define a c-shaped portion. an outer elongate member formed of a first material and comprising an interior surface and an exterior surface; an inner elongate member formed of a second material and comprising an interior surface and an exterior surface; and a core member formed of a third material and sandwiched between the outer elongate member and the inner elongate member, the core member being coupled with at least a portion of each of the interior surfaces (566, 567) of the outer elongate member and the inner elongate member; wherein: the outer elongate member and the inner elongate member are configured to move relative to each other when the limb is bent; and the first material and the second material are each stiffer than the third material; the limb being characterized in that the outer elongate member and the inner elongate member each comprise a central member (570, 574) and a pair of leg members (572, 576) that extend from and cooperate with the central member (570, 574) to define a c-shaped portion. the outer elongate member and the inner elongate member are configured to move relative to each other when the limb is bent; and the first material and the second material are each stiffer than the third material; the limb being characterized in that the outer elongate member and the inner elongate member each comprise a central member (570, 574) and a pair of leg members (572, 576) that extend from and cooperate with the central member (570, 574) to define a c-shaped portion.
A method for storing data in an internal data memory of a measurement transducer comprising a plurality of memory areas, wherein at least two of the memory areas are provided for storing count values and the method comprises the following steps: determining into which of a plurality of ranges a value measured by the measurement transducer falls; changing, by a predetermined value, a count value for the determined range, corresponding to a frequency with which measured values occur in the determined range; and storing the changed count value in a respective memory area of the at least two memory areas of the internal data memory of the measurement transducer provided for storing count values. determining into which of a plurality of ranges a value measured by the measurement transducer falls; changing, by a predetermined value, a count value for the determined range, corresponding to a frequency with which measured values occur in the determined range; and storing the changed count value in a respective memory area of the at least two memory areas of the internal data memory of the measurement transducer provided for storing count values.
Device for holding a cooked food holder in a cooking chamber of a cooking device, which has a support (2, 2', 3, 3') which has at least one insertion guide (8, 8') for receiving the cooked food holder, said insertion guide (8, 8') being delimited by an upper and a lower guide element (6, 6', 7, 7'), wherein at least one of the guide elements (6, 6', 7, 7') is embodied at least partially to be curved such that when viewed in the vertical direction it extends along the longitudinal axis of the insertion guide (8, 8') at least in sections at different height levels, wherein a partial region of a guide element (6', 7') extending over the length of the insertion guide has a downwardly oriented arc shape which has its deepest point in the centre of said length and is embodied over the whole length of the guide element (6', 7'), wherein at least one of the guide elements (6', 7') is curved downwards at least in sections, characterised in that at least one of the guide elements (6', 7') has a downwardly embodied continuous arc shape.
An electronic panel comprising: a base substrate having a first area, a second area adjacent to the first area, and a third area adjacent to the second area; a plurality of sensing electrodes (TE1, TE2) in the second area; a plurality of sensing lines (TL1, TL2, TL3) in the third area and electrically connected to the plurality of sensing electrodes (TE1, TE2); a crack sensing pattern in the first area and spaced apart from the plurality of sensing electrodes (TE1, TE2); a crack sensing line in the third area and spaced apart from the plurality of sensing lines (TL1, TL2, TL3); and a connection line comprising a floating portion connecting the crack sensing pattern to the crack sensing line via the second area, and wherein the floating portion is in the same layer as the crack sensing pattern and is spaced apart from the plurality of sensing electrodes (TE1, TE2). a base substrate having a first area, a second area adjacent to the first area, and a third area adjacent to the second area; a plurality of sensing electrodes (TE1, TE2) in the second area; a plurality of sensing lines (TL1, TL2, TL3) in the third area and electrically connected to the plurality of sensing electrodes (TE1, TE2); a crack sensing pattern in the first area and spaced apart from the plurality of sensing electrodes (TE1, TE2); a crack sensing line in the third area and spaced apart from the plurality of sensing lines (TL1, TL2, TL3); and a connection line comprising a floating portion connecting the crack sensing pattern to the crack sensing line via the second area, and wherein the floating portion is in the same layer as the crack sensing pattern and is spaced apart from the plurality of sensing electrodes (TE1, TE2).
Building automation device comprising a communication module having a communications bus (1.1) of the device, an application module that implements the functionality of the device, and a bus connector between the two modules (1,2), said bus connector is for power supply and data transfer, the communication module comprising a first casing (1.2) with a first wall (1.3) from which at least ten pins (3.1) of the bus connector project, characterised in that the communication module also comprises a second wall (1.4) having a first recess (1.5) in which the communication bus (1.1) is inserted, the application module comprising a second casing (2.1) with a third wall (2.2) from which a receiving connector (3.2) for the bus connector pins projects, a fourth wall (2.3) having a second recess (2.4) that includes electrical connection terminals, in use when the at least ten pins (3.1) of the bus connector are introduced in the receiving connector (3.2) the first wall (1.3) is positioned next to the third wall (2.2) and the first casing (1.2) is joined to the second casing (2.1) by securing means.
A node for conducting measurements on a bus supporting multi-master access of a plurality of nodes (100.1 to 100.6), the node comprising: a transceiver connectable to the bus and configured to detect bus signals and to convert the detected bus signals into a bit stream; a protocol engine coupled to the transceiver and arranged to receive the bit stream, wherein the protocol engine is configured to transition between different states, wherein predefined ones of the states are indicative of an exclusive access phase, during which only one of the plurality of nodes is allowed to assert signals on the bus; a detector connected to the protocol engine and configured to assert an enable indication for a period of time on detecting that the protocol engine is in a state indicative of the exclusive access phase; and a diagnosis module connectable to the bus and responsive to the enable indication of the detector, wherein the diagnosis module is configured to conduct measurements on the bus in response to the asserted enable indication. a transceiver connectable to the bus and configured to detect bus signals and to convert the detected bus signals into a bit stream; a protocol engine coupled to the transceiver and arranged to receive the bit stream, wherein the protocol engine is configured to transition between different states, wherein predefined ones of the states are indicative of an exclusive access phase, during which only one of the plurality of nodes is allowed to assert signals on the bus; a detector connected to the protocol engine and configured to assert an enable indication for a period of time on detecting that the protocol engine is in a state indicative of the exclusive access phase; and a diagnosis module connectable to the bus and responsive to the enable indication of the detector, wherein the diagnosis module is configured to conduct measurements on the bus in response to the asserted enable indication.
A method, comprising: at a first component (134.1, 134.2, 134.3,...134.n) of a plurality of components of a transport stack (130,170) of a content centric network node: receiving a pause message from an upper, second component in the stack, wherein the pause message is an interest with a pre-agreed-upon name; determining whether the pause message is rejected by the first component; if the pause message is not rejected: setting a state of the first component (134.1, 134.2, 134.3,...134.n) as quiesced in response to receiving the pause message, wherein a component (134.1, 134.2, 134.3,...134.n) in the quiesced state is precluded from processing an interest or a content object; and passing an acknowledgment message of the pause message up the transport stack (130,170), wherein the acknowledgment message indicates that the pause message has been successfully processed by a respective component of the transport stack (130,170). receiving a pause message from an upper, second component in the stack, wherein the pause message is an interest with a pre-agreed-upon name; determining whether the pause message is rejected by the first component; if the pause message is not rejected: setting a state of the first component (134.1, 134.2, 134.3,...134.n) as quiesced in response to receiving the pause message, wherein a component (134.1, 134.2, 134.3,...134.n) in the quiesced state is precluded from processing an interest or a content object; and passing an acknowledgment message of the pause message up the transport stack (130,170), wherein the acknowledgment message indicates that the pause message has been successfully processed by a respective component of the transport stack (130,170). setting a state of the first component (134.1, 134.2, 134.3,...134.n) as quiesced in response to receiving the pause message, wherein a component (134.1, 134.2, 134.3,...134.n) in the quiesced state is precluded from processing an interest or a content object; and passing an acknowledgment message of the pause message up the transport stack (130,170), wherein the acknowledgment message indicates that the pause message has been successfully processed by a respective component of the transport stack (130,170).
Method for determining the location of a fault on a three-phase line of an electrical power supply network, in which method - first current measurement values, which indicate respective phase currents flowing through the phases of the line, are measured at a first measuring point of the line; - travelling waves propagating in the event of a fault from the location of the fault along the line to the first measuring point are detected using the first current measurement values; and - a fault locating device is used to evaluate the detected travelling waves in order to ascertain the location of the fault; characterized in that - the fault locating device is used to determine modal components of the detected travelling wave, wherein at least two of the modal components have different propagation speeds along the line; and - a distance between the first measuring point and the location of the fault is ascertained using those times at which the modal components reach the first measuring point. - first current measurement values, which indicate respective phase currents flowing through the phases of the line, are measured at a first measuring point of the line; - travelling waves propagating in the event of a fault from the location of the fault along the line to the first measuring point are detected using the first current measurement values; and - a fault locating device is used to evaluate the detected travelling waves in order to ascertain the location of the fault; characterized in that - the fault locating device is used to determine modal components of the detected travelling wave, wherein at least two of the modal components have different propagation speeds along the line; and - a distance between the first measuring point and the location of the fault is ascertained using those times at which the modal components reach the first measuring point.
Structural element for installation in joints extending especially in a vertical plane in buildings, especially in the region of balconies, loggias or walkways, for sound-insulating, force-transmitting connection of building parts (A, B) adjoining on both sides, wherein the structural element consists of a separating plate extending at least partly along the joint and of reinforcing elements (3, 13) that pass through the latter, the separating plate having in the region of the joint at least one opening for at least a first reinforcing element, wherein the separating plate has in the region of the opening a trough-shaped shell body which, starting from the separating plate, projects into the first of the two adjoining building parts, wherein the first structural element, starting from the second of the two building parts, passes through the opening and projects into the shell body where it co-operates with an insulating element serving for sound-insulated force transmission between the two building parts (A, B), the first reinforcing element having a supporting element for the insulating element and forming together with the supporting element a bracket-like bearing projection (3, 4) for the second of the two building parts and wherein that second building part extends by means of the bearing projection into the shell body and thus projects into the first building part for sound-insulating, force-transmitting connection of the two building parts (A, B), and wherein the first reinforcing element is configured as a transverse force element by its being arranged, on passing through the opening, at an angle of inclination with respect to the separating plate and at an angle of inclination with respect to a horizontal plane (E H) perpendicular to the separating plate, characterised in that the first reinforcing element is also configured as a shear force element by its being arranged, in the region of the separating plate, at an angle of inclination with respect to a vertical plane (E V) perpendicular to the separating plate; and a second reinforcing element, starting from the second of the two building parts, passes through the separating plate and projects in a horizontal direction into the shell body where it co-operates with the supporting element for the insulating element. characterised in that the first reinforcing element is also configured as a shear force element by its being arranged, in the region of the separating plate, at an angle of inclination with respect to a vertical plane (E V) perpendicular to the separating plate; and a second reinforcing element, starting from the second of the two building parts, passes through the separating plate and projects in a horizontal direction into the shell body where it co-operates with the supporting element for the insulating element.
A patient-support apparatus comprising an upper frame, an upper deck supported on the upper frame, the upper deck movable with the upper frame and including a seat section and a head section, the head section pivotable relative to the seat section to change the angular relationship between the head section and the seat section, at least one inflatable structure (94, 95) supported on the seat section of the upper deck, the inflatable structure (94, 95) configured to support a portion of a patient positioned on the patient-support apparatus, and a controller operable to control movement of the upper frame and the head section of the upper deck, characterised in that the controller is programmed for coordinating inflation and deflation of the inflatable structure (94, 95) with articulation of the head section of the upper deck such that movement of the head section of the upper deck from a position in which the head section is generally coplanar with the seat section to a position in which the head section is inclined deflates the inflatable structure (94, 95).
A capillary flow cytometer device (200, 300) for detecting microparticles in a sample fluid, the microparticles being tagged with a fluorescent substance having a magnetic charge, the fluorescent substance emitting fluorescent light when exposed to electromagnetic radiation, the device comprising: a capillary tube providing a passageway for the sample fluid; a fluid delivery system coupled to the capillary tube, the fluid delivery system capable of causing the sample fluid to flow through the capillary tube; a source of electromagnetic radiation for projecting a beam of electromagnetic radiation through the capillary tube to expose the fluorescent substance to electromagnetic radiation; a first detection device configured to detect fluorescent light emitted from the fluorescent substance when the microparticles are exposed to the beam of electromagnetic radiation; and a second detection device configured to detect resonant light from the microparticles; characterized in that the device further comprises one or more magnetic elements positioned in a concentric relationship to the capillary tube, such that, in use, the microparticles tagged with the fluorescent substance are focused to the centre of the capillary tube as they flow therethrough. a capillary tube providing a passageway for the sample fluid; a fluid delivery system coupled to the capillary tube, the fluid delivery system capable of causing the sample fluid to flow through the capillary tube; a source of electromagnetic radiation for projecting a beam of electromagnetic radiation through the capillary tube to expose the fluorescent substance to electromagnetic radiation; a first detection device configured to detect fluorescent light emitted from the fluorescent substance when the microparticles are exposed to the beam of electromagnetic radiation; and a second detection device configured to detect resonant light from the microparticles; characterized in that the device further comprises one or more magnetic elements positioned in a concentric relationship to the capillary tube, such that, in use, the microparticles tagged with the fluorescent substance are focused to the centre of the capillary tube as they flow therethrough.
A composition for application to a metal substrate, the composition comprising: an aqueous carrier; a hydroxide anion; a phosphate anion, wherein the phosphate is present in an amount of 70g / 1000 g solution to 90 g / 1000 g solution; and a corrosion inhibitor comprising an azole compound, a rare earth ion, an alkaline earth metal ion, a Li ion, a Na ion, a K ion, a Rb ion, a Cs ion, a Fr ion, and/or a transition metal ion. an aqueous carrier; a hydroxide anion; a phosphate anion, wherein the phosphate is present in an amount of 70g / 1000 g solution to 90 g / 1000 g solution; and a corrosion inhibitor comprising an azole compound, a rare earth ion, an alkaline earth metal ion, a Li ion, a Na ion, a K ion, a Rb ion, a Cs ion, a Fr ion, and/or a transition metal ion.
A method of providing a description, the method comprising: sensing a change of a service configuration of a controlled device complying with a predetermined standard; updating a description of information about a service based on the change of the service configuration; and advertising that the description is updated, characterized in that the method further comprises the step of installing a new protocol providing a new service in the controlled device, or removing an existing protocol installed in the controlled device, wherein the step of sensing the change of the service configuration comprises sensing a registration of a service, a change of a service, and a removal of a service according to the installation of the new protocol or the removal of the existing protocol. sensing a change of a service configuration of a controlled device complying with a predetermined standard; updating a description of information about a service based on the change of the service configuration; and advertising that the description is updated, characterized in that the method further comprises the step of installing a new protocol providing a new service in the controlled device, or removing an existing protocol installed in the controlled device, wherein the step of sensing the change of the service configuration comprises sensing a registration of a service, a change of a service, and a removal of a service according to the installation of the new protocol or the removal of the existing protocol.
Process for the regeneration of a catalyst comprising at least one metal from Group VIII and at least one metal from Group VIB which are deposited on a refractory oxide support, comprising: - at least one first step of heat treatment of the catalyst in the presence of oxygen and at a temperature ranging from 350°C to 550°C; - one second step of deposition, at the surface of the catalyst, of one or more additive(s) of formula: in which the R 1 and R 2 groups, which are identical or different, denote a hydrogen atom or a saturated or unsaturated, linear or branched hydrocarbon radical which comprises from 1 to 4 carbon atoms and which can be substituted by one or more -OH, -OR, -SH, -SR, -NH 2, -NHR or -NRR' groups, with R and R' denoting alkyl groups comprising from 1 to 4 carbon atoms, the total amount of additive(s) of formula deposited at the surface of the catalyst at the end of the said second step, expressed as the ratio of the molar amount of additive(s) of formula to the total molar amount of metals from Groups VIII and VIB, being at least 0.01 mol of additive(s) per mole of metals from Groups VIII and VIB, wherein said second step does not comprise any deposition of one or more additional organic additives, in addition to the additive(s) of formula. - at least one first step of heat treatment of the catalyst in the presence of oxygen and at a temperature ranging from 350°C to 550°C; - one second step of deposition, at the surface of the catalyst, of one or more additive(s) of formula: in which the R 1 and R 2 groups, which are identical or different, denote a hydrogen atom or a saturated or unsaturated, linear or branched hydrocarbon radical which comprises from 1 to 4 carbon atoms and which can be substituted by one or more -OH, -OR, -SH, -SR, -NH 2, -NHR or -NRR' groups, with R and R' denoting alkyl groups comprising from 1 to 4 carbon atoms, the total amount of additive(s) of formula deposited at the surface of the catalyst at the end of the said second step, expressed as the ratio of the molar amount of additive(s) of formula to the total molar amount of metals from Groups VIII and VIB, being at least 0.01 mol of additive(s) per mole of metals from Groups VIII and VIB, wherein said second step does not comprise any deposition of one or more additional organic additives, in addition to the additive(s) of formula.