mhurhangee/ep-ind-claims huggingface dataset:
A glass ball safety valve comprising: a housing including a valve passage connecting a first port and a second port; a valve element provided in the housing so as to close the valve passage, the valve element being movable in an open direction so as to open the valve passage; a biasing spring configured to bias the valve element in the open direction; a glass ball extending in the open direction from the valve element and provided in the housing so as to support the valve element against biasing force of the biasing spring with a space between the valve element and the housing, the glass ball including a longitudinal-direction intermediate portion that breaks at a predetermined temperature, the glass ball in a broken state allowing a movement of the valve element in the open direction; and a holding body provided in the housing and holding at least one of a first longitudinal-direction end-side portion and second longitudinal-direction end-side portion of the glass ball, wherein the housing includes a block and a cap, the block including a valve hole at which the valve element is arranged; and the valve element is provided in the housing so as to move in the open direction along an inner peripheral surface of the housing; characterized in that: the cap is configured to close the valve hole; and a sliding body is provided that seals a gap between the valve element and the inner peripheral surface of the cap. a housing including a valve passage connecting a first port and a second port; a valve element provided in the housing so as to close the valve passage, the valve element being movable in an open direction so as to open the valve passage; a biasing spring configured to bias the valve element in the open direction; a glass ball extending in the open direction from the valve element and provided in the housing so as to support the valve element against biasing force of the biasing spring with a space between the valve element and the housing, the glass ball including a longitudinal-direction intermediate portion that breaks at a predetermined temperature, the glass ball in a broken state allowing a movement of the valve element in the open direction; and a holding body provided in the housing and holding at least one of a first longitudinal-direction end-side portion and second longitudinal-direction end-side portion of the glass ball, wherein the housing includes a block and a cap, the block including a valve hole at which the valve element is arranged; and the valve element is provided in the housing so as to move in the open direction along an inner peripheral surface of the housing; characterized in that: the cap is configured to close the valve hole; and a sliding body is provided that seals a gap between the valve element and the inner peripheral surface of the cap. the cap is configured to close the valve hole; and a sliding body is provided that seals a gap between the valve element and the inner peripheral surface of the cap.
A compacting assembly for an automatic cigarette filter manufacturing machine; the compacting assembly comprising: at least one jet through which filtering material is fed; an insertion finger located downstream from the jet and connectable to a filter rod forming beam; and an insertion unit for inserting a thread inside the filtering material, and which comprises a guide tube defining a feed channel through which the thread is run, and an adjusting device for adjusting the position of an outlet opening of the guide tube; the compacting assembly being characterized in that the guide tube of the insertion unit is connected to a fixed part by means of a spherical joint, which allows rotation of the guide tube with respect to the fixed part about two perpendicular axes of rotation. at least one jet through which filtering material is fed; an insertion finger located downstream from the jet and connectable to a filter rod forming beam; and an insertion unit for inserting a thread inside the filtering material, and which comprises a guide tube defining a feed channel through which the thread is run, and an adjusting device for adjusting the position of an outlet opening of the guide tube; the compacting assembly being characterized in that the guide tube of the insertion unit is connected to a fixed part by means of a spherical joint, which allows rotation of the guide tube with respect to the fixed part about two perpendicular axes of rotation.
A method for molding a composite material, comprising: placing a component to be pressed in a gas-isolation element and between an upper pressing plate and a lower pressing plate, wherein the component to be pressed includes: a prepreg element; a sealing element, which is a material that can be compressively deformed by pressure; wherein, in z-axis direction, a height (H 21) of the sealing element is not lower than a height (H 11) of the prepreg element; and at least one dimension control element (231a and 233a), wherein each dimension control element (231a and 233a) is a component that is not deformed under pressure; wherein a height (H 21) of the sealing element is higher than a height (H 3) of the at least one dimension control element (231a and 233a); and in a plane perpendicular to a pressing direction, the sealing element surrounds the prepreg element, the sealing element has a discharge channel, and the sealing element is disposed between the prepreg element and the at least one dimension control element (231a and 233a); corresponding to a position of the prepreg element, placing a plate element between the gas-isolation element and the upper pressing plate; performing a hot pressing step by the upper pressing plate and the lower pressing plate; and performing a cooling step to produce the composite material. a prepreg element; a sealing element, which is a material that can be compressively deformed by pressure; wherein, in z-axis direction, a height (H 21) of the sealing element is not lower than a height (H 11) of the prepreg element; and at least one dimension control element (231a and 233a), wherein each dimension control element (231a and 233a) is a component that is not deformed under pressure; wherein a height (H 21) of the sealing element is higher than a height (H 3) of the at least one dimension control element (231a and 233a); and in a plane perpendicular to a pressing direction, the sealing element surrounds the prepreg element, the sealing element has a discharge channel, and the sealing element is disposed between the prepreg element and the at least one dimension control element (231a and 233a); corresponding to a position of the prepreg element, placing a plate element between the gas-isolation element and the upper pressing plate; performing a hot pressing step by the upper pressing plate and the lower pressing plate; and performing a cooling step to produce the composite material.
Process for producing a setting and/or hardening accelerator for mineral binders, characterized in that a mineral solid is subjected to milling in a liquid medium, wherein the mineral solid comprises a cement, in particular a Portland cement, calcium aluminate cement and/or calcium sulfoaluminate cement, and wherein the mineral solid comprises limestone and/or limestone flour.
An oxygen vacancy electrolyte material comprising bismuth calcium ferrites (Bi 1-x Ca x FeO 3-δ), wherein an oxygen vacancy diffusivity of the bismuth calcium ferrites is included in a range of 10 -10 to 10 -6 cm 2 /sec at a temperature of 250°C to 400°C, as measured according to the method of the description, characterized in that a calcium ion concentration x is in a range of 0.4 to 0.5. wherein an oxygen vacancy diffusivity of the bismuth calcium ferrites is included in a range of 10 -10 to 10 -6 cm 2 /sec at a temperature of 250°C to 400°C, as measured according to the method of the description, characterized in that a calcium ion concentration x is in a range of 0.4 to 0.5.
A formwork beam comprising at least one nailable strip, at least one fastening means, and a metallic hollow profile, which has multiple side walls (5, 11, 14, 16) and which forms a longitudinal groove with its profile legs, which longitudinal groove has at least one groove wall opening in at least one of its groove walls, wherein the strip provided in the longitudinal groove is fastened on the hollow profile by the detachable fastening means projecting through the groove wall opening, wherein the hollow profile is formed closed and forms the longitudinal groove on a first side wall by way of its profile legs, wherein at least one further side wall (11, 16) adjoining this first side wall in an inclined manner is cut out of the longitudinal groove at the height of the groove wall opening and thus forms an access opening for the detachable fastening means, wherein the respective side wall (11, 16) adjoining the first side wall extends spaced apart from the groove wall, characterized in that the hollow profile has a rectangular cross section, the narrow side of which forms the first side wall.
A valve for regulating the flow rate of a fluid, including: - a duct including an opening allowing a flow of the fluid, and - a valve member that is mobile in translation in the duct between a closed position and an end open position, wherein: - the duct includes a zone for controlling the fluid flow rate, one end of which is delimited by the line of contact with the valve member when it is in the closed position, the control zone including, opposite the valve member, a surface with a curvilinear profile flaring out from the line of contact in the direction in which the valve member slides from the closed position to the end open position, and - the valve member includes at least one bulge arranged opposite the control zone of the duct when the valve member is in the closed position, the valve member includes a complementary control zone one end of which is delimited by the line of contact with the duct when the valve member is in the closed position, the complementary control zone including the at least one bulge, the valve being characterized in that - the control zone of the duct includes a first zone and a second zone spaced by an intermediate zone, the first zone including a surface of curvilinear profile, the second zone including a surface of curvilinear profile with the opposite concavity to the concavity of the first zone and the intermediate zone including a linear profile surface; and - the or each bulge of the complementary control zone of the valve member is arranged facing the intermediate zone of the control zone of the duct when the valve member is in the closed position. - a duct including an opening allowing a flow of the fluid, and - a valve member that is mobile in translation in the duct between a closed position and an end open position, - the duct includes a zone for controlling the fluid flow rate, one end of which is delimited by the line of contact with the valve member when it is in the closed position, the control zone including, opposite the valve member, a surface with a curvilinear profile flaring out from the line of contact in the direction in which the valve member slides from the closed position to the end open position, and - the valve member includes at least one bulge arranged opposite the control zone of the duct when the valve member is in the closed position, - the control zone of the duct includes a first zone and a second zone spaced by an intermediate zone, the first zone including a surface of curvilinear profile, the second zone including a surface of curvilinear profile with the opposite concavity to the concavity of the first zone and the intermediate zone including a linear profile surface; and - the or each bulge of the complementary control zone of the valve member is arranged facing the intermediate zone of the control zone of the duct when the valve member is in the closed position.
A path selection method, wherein the method comprises: obtaining a required latency of a service; and determining a target path for the service from m strict explicit paths based on the required latency, wherein a latency of the target path is less than or equal to the required latency, any subpath of a first strict explicit path in the m strict explicit paths exists in only the first strict explicit path, the first strict explicit path is any path in the m strict explicit paths, and m is an integer greater than or equal to 1; the method characterized in that all the m strict explicit paths are unallocated paths. obtaining a required latency of a service; and determining a target path for the service from m strict explicit paths based on the required latency, wherein a latency of the target path is less than or equal to the required latency, any subpath of a first strict explicit path in the m strict explicit paths exists in only the first strict explicit path, the first strict explicit path is any path in the m strict explicit paths, and m is an integer greater than or equal to 1; the method characterized in that all the m strict explicit paths are unallocated paths.
A method for purification of contaminated oil, said method comprising the steps of: - providing contaminated oil and a separation aid in a tank, wherein said separation aid is liquid at the temperature at which the process is carried out and will by chemical interactions absorb contaminating solids or dissolved impurities in the oil to be purified and wherein the separation aid composition is substantially insoluble in the oil to be purified because of its polar properties, forming a two-phase mixture upon mixing with the oil to be purified and wherein the separation aid has a density different from that of the oil to be purified; - allowing a sludge phase comprising the separation aid together with impurities from the oil to settle in a bottom part of the tank; - reusing the sludge phase for purification of new contaminated oil, wherein said method further comprises the steps of: - transferring clean oil out from the tank when the sludge phase has settled in the bottom part of the tank; - adding new contaminated oil to the tank; - mixing the newly added contaminated oil with the sludge phase previously settled in the bottom part of the tank; - allowing a new sludge phase comprising the old sludge phase and new impurities from the new oil to settle in the bottom part of the tank. - providing contaminated oil and a separation aid in a tank, wherein said separation aid is liquid at the temperature at which the process is carried out and will by chemical interactions absorb contaminating solids or dissolved impurities in the oil to be purified and wherein the separation aid composition is substantially insoluble in the oil to be purified because of its polar properties, forming a two-phase mixture upon mixing with the oil to be purified and wherein the separation aid has a density different from that of the oil to be purified; - allowing a sludge phase comprising the separation aid together with impurities from the oil to settle in a bottom part of the tank; - reusing the sludge phase for purification of new contaminated oil, wherein said method further comprises the steps of: - transferring clean oil out from the tank when the sludge phase has settled in the bottom part of the tank; - adding new contaminated oil to the tank; - mixing the newly added contaminated oil with the sludge phase previously settled in the bottom part of the tank; - allowing a new sludge phase comprising the old sludge phase and new impurities from the new oil to settle in the bottom part of the tank.
A method, comprising: reporting at least a first set of user equipment location information and at least a second set of user equipment location information from a user equipment to at least one network node for broadcast bearer management, wherein the first set of user equipment location information comprises a serving cell identity of the user equipment, and wherein the second set of user equipment location information comprises at least one identity of at least one network service area for media broadcasting, said identity of the network service area comprising a multimedia broadcast/multicast service (MBMS) service area identity and/or a tracking area identity. reporting at least a first set of user equipment location information and at least a second set of user equipment location information from a user equipment to at least one network node for broadcast bearer management, wherein the first set of user equipment location information comprises a serving cell identity of the user equipment, and wherein the second set of user equipment location information comprises at least one identity of at least one network service area for media broadcasting, said identity of the network service area comprising a multimedia broadcast/multicast service (MBMS) service area identity and/or a tracking area identity.
Process for modifying the structure of an organic sludge to be subjected to drying, comprising a step in which said organic sludge, being in the form of a wet solid with a content of dry matter equal to or higher than 20% by weight of the total weight of the sludge, is exposed to the action of an electric field generated by direct current, which is comprised between 30 V/0.01m and 100 V/0.01m.
A clutched joint module (106a-d) for use within a robotic assembly, comprising: an output member operable to couple to a first support member (104a-d) of a robotic system; an input member operable to couple to a second support member (104a-d) of the robotic system; a primary actuator operable to apply a torque to rotate the output member about an axis of rotation, the primary actuator comprising a motor and a transmission (148, 170); and a clutch mechanism (136, 206) operably coupled between the input member and the output member, the clutch mechanism operable in an engaged state, a semi-engaged state, or a disengaged state, wherein the engaged state and the semi-engaged state facilitate selective application of the primary torque to the output member, characterized in that the clutch mechanism, the motor, and the transmission are arranged along and operable about the axis of rotation. an output member operable to couple to a first support member (104a-d) of a robotic system; an input member operable to couple to a second support member (104a-d) of the robotic system; a primary actuator operable to apply a torque to rotate the output member about an axis of rotation, the primary actuator comprising a motor and a transmission (148, 170); and a clutch mechanism (136, 206) operably coupled between the input member and the output member, the clutch mechanism operable in an engaged state, a semi-engaged state, or a disengaged state, wherein the engaged state and the semi-engaged state facilitate selective application of the primary torque to the output member,
An indicia-reading module, comprising: a sensor module including a filter, a sensor integrated circuit die, and an adjustable imaging lens for imaging the indicia reading module's field of view onto the sensor integrated circuit die, wherein the sensor integrated circuit die includes a plurality of pixels; an illuminator-aimer circuit subassembly (i) for projecting electromagnetic radiation toward indicia within the indicia-reading module's field of view and (ii) for projecting a sighting pattern that corresponds with the indicia-reading module's field of view; a processing circuit subassembly for rendering indicia information; and an interface circuit subassembly for connecting the indicia-reading module to a host device; characterized in that the indicia-reading module is configured to facilitate narrow-edge integration into a thin-profile smart device by directly mounting the sensor integrated circuit die on, and electrically interconnecting the sensor integrated circuit die to, a substrate, wherein the sensor integrated circuit die is hermetically sealed within a structure formed by the substrate, a housing, and the filter. a sensor module including a filter, a sensor integrated circuit die, and an adjustable imaging lens for imaging the indicia reading module's field of view onto the sensor integrated circuit die, wherein the sensor integrated circuit die includes a plurality of pixels; an illuminator-aimer circuit subassembly (i) for projecting electromagnetic radiation toward indicia within the indicia-reading module's field of view and (ii) for projecting a sighting pattern that corresponds with the indicia-reading module's field of view; a processing circuit subassembly for rendering indicia information; and an interface circuit subassembly for connecting the indicia-reading module to a host device; characterized in that the indicia-reading module is configured to facilitate narrow-edge integration into a thin-profile smart device by directly mounting the sensor integrated circuit die on, and electrically interconnecting the sensor integrated circuit die to, a substrate, wherein the sensor integrated circuit die is hermetically sealed within a structure formed by the substrate, a housing, and the filter.
Arrangement for controlling drilling parameters during rock drilling, wherein the arrangement is arranged such that a drill tool is connectable to a drilling machine by means of one or more drill string components (3a,3b), wherein the arrangement comprises means for rotating the drill tool during drilling and for providing a tightening torque for tightening joints between one or more from the group: drill tool, one or more drill string components (3a,3b) and drilling machine, characterised in that the arrangement is arranged to control the rotational speed (n) of the drill tool based on available tightening torque, wherein said means consists of a rotation motor, wherein the arrangement further is arranged to: - obtain the available rotational torque as a function of rotation pressure, - continuously and/or at certain intervals obtain the rotation pressure by sensoring, monitoring, measurement or calculation, and - compare the obtained rotation pressure with the rotation pressure that is required at the current rotational speed (n) of the drilling machine, and decrease the rotational speed (n) of the drill tool if the current pressure is lower than the required pressure. - obtain the available rotational torque as a function of rotation pressure, - continuously and/or at certain intervals obtain the rotation pressure by sensoring, monitoring, measurement or calculation, and - compare the obtained rotation pressure with the rotation pressure that is required at the current rotational speed (n) of the drilling machine, and decrease the rotational speed (n) of the drill tool if the current pressure is lower than the required pressure.