mhurhangee/ep-ind-claims huggingface dataset:
A method of making a plugged honeycomb body, the method comprising: contacting a first end face of a honeycomb body with a first mask having openings, wherein the honeycomb body comprises a matrix of intersecting porous ceramic walls defining cell channels extending from the first end face to a second end face; injecting a wet plug cement through the openings in the first mask and into at least some of the cell channels at the first end face; removing the first mask from the first end face; disposing a heat source in proximity of the first end face, wherein the heat source is spaced apart from the first end face; and heating the first end face with the heat source to only partially dry the wet plug cement in the at least some of the cell channels at the first end face, after heating the first end face with the heat source to only partially dry the plug cement in the at least some of the cell channels at the first end face, disposing the honeycomb body in a dryer and drying the honeycomb body, wherein the disposing the heat source proximate the first end face is performed outside of the dryer, characterised in that the heat source comprises a hot plate, wherein the heat source is spaced from 0.1 cm to 12.7 cm apart from the first end face, wherein the heating the first end face with the heat source comprises heating to greater than 75 °C. contacting a first end face of a honeycomb body with a first mask having openings, wherein the honeycomb body comprises a matrix of intersecting porous ceramic walls defining cell channels extending from the first end face to a second end face; injecting a wet plug cement through the openings in the first mask and into at least some of the cell channels at the first end face; removing the first mask from the first end face; disposing a heat source in proximity of the first end face, wherein the heat source is spaced apart from the first end face; and heating the first end face with the heat source to only partially dry the wet plug cement in the at least some of the cell channels at the first end face, after heating the first end face with the heat source to only partially dry the plug cement in the at least some of the cell channels at the first end face, disposing the honeycomb body in a dryer and drying the honeycomb body, wherein the disposing the heat source proximate the first end face is performed outside of the dryer, characterised in that the heat source comprises a hot plate, wherein the heat source is spaced from 0.1 cm to 12.7 cm apart from the first end face, wherein the heating the first end face with the heat source comprises heating to greater than 75 °C.
A sensing device for sensing one or more conditions inside a container, the device comprising: a radio frequency activated sensor; a support for positioning the sensor inside the container; and a pick-up coil operable with the sensor, characterised in that the device further includes: an insert element (10; 48; 88) for holding the pick-up coil, and in that: the insert element (10; 48; 88) is adapted to be received by the support and when so received holds the pick up coil such that the pick up coil and sensor interact operatively. a radio frequency activated sensor; a support for positioning the sensor inside the container; and a pick-up coil operable with the sensor, characterised in that the device further includes: an insert element (10; 48; 88) for holding the pick-up coil, and in that: the insert element (10; 48; 88) is adapted to be received by the support and when so received holds the pick up coil such that the pick up coil and sensor interact operatively. the insert element (10; 48; 88) is adapted to be received by the support and when so received holds the pick up coil such that the pick up coil and sensor interact operatively.
A magnetic coding free pin type lock cylinder structure, comprising: a lock cylinder housing; a lock knob rotationally disposed within the lock cylinder housing; a lock cylinder front end cover and a lock cylinder rear end cover respectively located at two ends of the lock cylinder housing, whereby at least one pin vertically moving groove and at least one pin horizontally rotary groove are provided on an inner wall of the lock cylinder housing, an unlocking hole for a magnetic coding key is provided axially at an end of the lock knob, opposite to the lock cylinder front end cover, a plurality of pin vertical sliding grooves are provided on an outer wall of the lock knob, free pins are provided in at least one of the plurality of pin vertical sliding grooves, characterized in that the free pins include big pins and small pins; wherein the lock cylinder structure is in an unlocked state only when the magnetic coded key has brought all the big pins into a location within the pin moving grooves, intersecting with the pin horizontally rotary groove and all the small pins to a position entirely located within the pin vertically sliding grooves. a lock cylinder housing; a lock knob rotationally disposed within the lock cylinder housing; a lock cylinder front end cover and a lock cylinder rear end cover respectively located at two ends of the lock cylinder housing, whereby at least one pin vertically moving groove and at least one pin horizontally rotary groove are provided on an inner wall of the lock cylinder housing, an unlocking hole for a magnetic coding key is provided axially at an end of the lock knob, opposite to the lock cylinder front end cover, a plurality of pin vertical sliding grooves are provided on an outer wall of the lock knob, free pins are provided in at least one of the plurality of pin vertical sliding grooves, characterized in that the free pins include big pins and small pins; wherein the lock cylinder structure is in an unlocked state only when the magnetic coded key has brought all the big pins into a location within the pin moving grooves, intersecting with the pin horizontally rotary groove and all the small pins to a position entirely located within the pin vertically sliding grooves.
A bryostatin having a purity of approximately 50% to 99%, a measured mass plus sodium of 897.2 amu and a measured monoisotopic mass of 874.2 amu, wherein the structure of the bryostatin is represented by:
A package that includes: a container; an original flowable product dispensably disposed within the container; a closure coupled to the container to close the container; wherein the closure carries a pressure sensor and a first microcontroller electrically coupled to the pressure sensor; and wherein the package includes: an indicator carried by the container, and responsive to a change in pressure in the package to irreversibly modify a visual characteristic visible from outside the container, wherein the indicator displays an initial state of the visual characteristic, and then displays another state irreversible to the initial state responsive to the change of the pressure in the package; and wherein the indicator includes a second microcontroller carried by the container and in communication with the first microcontroller, and a display carried by the container and electrically coupled to the second microcontroller. a container; an original flowable product dispensably disposed within the container; a closure coupled to the container to close the container; wherein the closure carries a pressure sensor and a first microcontroller electrically coupled to the pressure sensor; and wherein the package includes: an indicator carried by the container, and responsive to a change in pressure in the package to irreversibly modify a visual characteristic visible from outside the container, wherein the indicator displays an initial state of the visual characteristic, and then displays another state irreversible to the initial state responsive to the change of the pressure in the package; and wherein the indicator includes a second microcontroller carried by the container and in communication with the first microcontroller, and a display carried by the container and electrically coupled to the second microcontroller. an indicator carried by the container, and responsive to a change in pressure in the package to irreversibly modify a visual characteristic visible from outside the container, wherein the indicator displays an initial state of the visual characteristic, and then displays another state irreversible to the initial state responsive to the change of the pressure in the package; and wherein the indicator includes a second microcontroller carried by the container and in communication with the first microcontroller, and a display carried by the container and electrically coupled to the second microcontroller.
Toilet arrangement, which includes a gravity toilet bowl provided with a water trap and an outlet having a diameter corresponding to a given first diameter of a gravity sewer pipe, which arrangement further includes a flush water tank connected to a source of water by means of a water valve and to the gravity toilet bowl by a flush valve for providing flush water to the gravity toilet bowl during a flushing sequence, and an activating means for activating the flushing sequence of the gravity toilet bowl, which arrangement further includes a discharge valve, a vacuum sewer piping with a given second diameter, and a control mechanism arranged to be activated by the activating means and connected to the vacuum sewer piping, the discharge valve, the water valve and the flush valve, as well as a vacuum unit connected to the vacuum sewer piping for generating vacuum in the vacuum sewer piping, wherein the toilet arrangement comprises an adapter for providing a flow connection between the outlet with the given first diameter of a gravity sewer pipe and the discharge valve with the given second diameter of the vacuum sewer piping, that a first end of the discharge valve is directly connected by means of the adapter to the outlet of the gravity toilet bowl and that a second end of the discharge valve, opposite to said first end, is directly connected to the vacuum sewer piping, whereby sewage disposed in the gravity toilet bowl is arranged to be directly discharged from the gravity toilet bowl through the water trap and the outlet provided with the adapter into the vacuum sewer piping through the discharge valve in connection with the flushing sequence.
A method of configuring a transmitter in order to transmit a Phase Jitter Modulated signal, the method comprising the step of: at a period of time corresponding to a change of phase of the PJM signal, adjusting the transmitter's frequency to substantially match, within predetermined limits, the instantaneous frequency of the phase modulated PJM signal by varying at least one reactance element of the transmitter. at a period of time corresponding to a change of phase of the PJM signal, adjusting the transmitter's frequency to substantially match, within predetermined limits, the instantaneous frequency of the phase modulated PJM signal by varying at least one reactance element of the transmitter.
A thermally protective material comprising: a flame resistant, thermally stable substrate, and a discontinuously applied active insulation comprising a polymer resin-expandable graphite mixture adjacent to the flame resistant, thermally stable substrate, wherein the thickness of the active insulation increases by at least 200% after 90-seconds in a convective oven heated to 300 °C. a flame resistant, thermally stable substrate, and a discontinuously applied active insulation comprising a polymer resin-expandable graphite mixture adjacent to the flame resistant, thermally stable substrate, wherein the thickness of the active insulation increases by at least 200% after 90-seconds in a convective oven heated to 300 °C.
A therapeutic treatment system for controlled thermal injury in human superficial tissue within a region-of-interest, said treatment system comprising: a control system configured for control of said treatment system; a probe configured for generating a conformal lesion within the region-of interest, said control system and said probe being configured for spatial and temporal control to generate the conformal lesion, the probe comprising: a handle; a single ultrasound therapy element composed of one individual single-element transducer, configured for single focus and for treating said region-of-interest, the single ultrasound therapy element configured to emit acoustical energy at a frequency of between 1 MHz and 40 MHz for generating the conformal lesion within the region-of-interest at the depth of superficial human tissue between zero and 30 mm from a skin surface; and a motion mechanism in the probe for controllably creating a plurality of conformal lesions, a transducer probe housing for coupling to a tissue interface, wherein the probe is configured within the transducer probe housing; and the control system being in communication with and controlling said probe and being configured to controllably produce the plurality of conformal lesions separated throughout the region-of-interest. a control system configured for control of said treatment system; a probe configured for generating a conformal lesion within the region-of interest, said control system and said probe being configured for spatial and temporal control to generate the conformal lesion, the probe comprising: a handle; a single ultrasound therapy element composed of one individual single-element transducer, configured for single focus and for treating said region-of-interest, the single ultrasound therapy element configured to emit acoustical energy at a frequency of between 1 MHz and 40 MHz for generating the conformal lesion within the region-of-interest at the depth of superficial human tissue between zero and 30 mm from a skin surface; and a motion mechanism in the probe for controllably creating a plurality of conformal lesions, a transducer probe housing for coupling to a tissue interface, wherein the probe is configured within the transducer probe housing; and a handle; a single ultrasound therapy element composed of one individual single-element transducer, configured for single focus and for treating said region-of-interest, the single ultrasound therapy element configured to emit acoustical energy at a frequency of between 1 MHz and 40 MHz for generating the conformal lesion within the region-of-interest at the depth of superficial human tissue between zero and 30 mm from a skin surface; and a motion mechanism in the probe for controllably creating a plurality of conformal lesions, a transducer probe housing for coupling to a tissue interface, wherein the probe is configured within the transducer probe housing; and the control system being in communication with and controlling said probe and being configured to controllably produce the plurality of conformal lesions separated throughout the region-of-interest.
A rotary connector device comprising a rotator configured by an annular rotator-side ring plate and a cylindrical inner-circumferential portion formed on an inner-circumferential edge of the rotator-side ring plate, and a stator configured by an annular stator-side ring plate and a cylindrical outer-circumferential cylindrical portion formed on an outer-circumferential edge of the stator-side ring plate are fitted with each other to be relatively rotatable in both of rotational directions that are a clockwise direction and a counterclockwise direction, the rotary connector device characterized by the rotary connector device further comprising: - a self-rotation member provided in at least one of the rotator and the stator to be self-rotatable around a self rotation axis parallel with a rotation axis of the relative rotation and provided with rotation restricting means for restricting the self-rotation as a result of coming into contact with the other one of the rotator and the stator; - rotation transmitting means for transmitting the relative rotation and the self-rotation in an interlockable manner; and - switching means (52, 53) for switching, in a neutral position from which the rotator can rotate with respect to the stator substantially equally in both the rotational directions, a released state, in which restriction of the self-rotation by the rotation restricting means is released, to a restricted state, in which the self-rotation is restricted as a result of contact of the rotation restricting means. - a self-rotation member provided in at least one of the rotator and the stator to be self-rotatable around a self rotation axis parallel with a rotation axis of the relative rotation and provided with rotation restricting means for restricting the self-rotation as a result of coming into contact with the other one of the rotator and the stator; - rotation transmitting means for transmitting the relative rotation and the self-rotation in an interlockable manner; and - switching means (52, 53) for switching, in a neutral position from which the rotator can rotate with respect to the stator substantially equally in both the rotational directions, a released state, in which restriction of the self-rotation by the rotation restricting means is released, to a restricted state, in which the self-rotation is restricted as a result of contact of the rotation restricting means.
A surgical helmet assembly, comprising: a surgical helmet to be worn on a head of a user, comprising: an open cage structure positionable above the head of the user; a brow bar configured to extend around a forehead of the user; a chin bar configured to be positioned in front of a chin of the user, the chin bar extending from the helmet at a location behind the ears of the user, wherein the chin bar comprises an airflow channel extending through the interior of the chin bar, wherein the chin bar comprises a front airflow outlet configured to direct airflow out of the chin bar in an upward direction across a front portion of a face of the user; a fan; an inflow air chamber at a rear of the helmet; and an airflow inlet in fluid communication with at least the fan the inflow air chamber and the airflow channel extending through the interior of the chin bar; wherein, in operation, the fan generates a flow of air that passes into the inflow air chamber through the airflow inlet, through the airflow channel extending through the interior of the chin bar, and out of the front airflow outlet upward past a face of the user and over a head of the user to exit through the top of the helmet. a surgical helmet to be worn on a head of a user, comprising: an open cage structure positionable above the head of the user; a brow bar configured to extend around a forehead of the user; a chin bar configured to be positioned in front of a chin of the user, the chin bar extending from the helmet at a location behind the ears of the user, wherein the chin bar comprises an airflow channel extending through the interior of the chin bar, wherein the chin bar comprises a front airflow outlet configured to direct airflow out of the chin bar in an upward direction across a front portion of a face of the user; a fan; an inflow air chamber at a rear of the helmet; and an airflow inlet in fluid communication with at least the fan the inflow air chamber and the airflow channel extending through the interior of the chin bar; an open cage structure positionable above the head of the user; a brow bar configured to extend around a forehead of the user; a chin bar configured to be positioned in front of a chin of the user, the chin bar extending from the helmet at a location behind the ears of the user, wherein the chin bar comprises an airflow channel extending through the interior of the chin bar, wherein the chin bar comprises a front airflow outlet configured to direct airflow out of the chin bar in an upward direction across a front portion of a face of the user; a fan; an inflow air chamber at a rear of the helmet; and an airflow inlet in fluid communication with at least the fan the inflow air chamber and the airflow channel extending through the interior of the chin bar; wherein, in operation, the fan generates a flow of air that passes into the inflow air chamber through the airflow inlet, through the airflow channel extending through the interior of the chin bar, and out of the front airflow outlet upward past a face of the user and over a head of the user to exit through the top of the helmet.
Method for transporting container preforms, of the type of preforms that are intended to be transformed into containers by blow-moulding or stretch-blow-moulding, which preforms are made of plastic and each have a tubular wall defining a body and a neck that are separated by a collar that protrudes radially from the wall, by means of a device comprising an endless circulating element that has an external face and bears a series of brushes that protrude from the external face, which are able to come into contact with the preforms so as to drive them by friction along a path, the device comprising a pair of rails that are spaced apart from one another, which jointly define at least a part of the path of the preforms, these rails having coplanar bearing faces for the suspension, by their collar, of the preforms oriented neck up, the belt having an internal face opposite the external face, in which method: the preforms are guided by means of a neck guide that extends vertically in line with the rails at a distance therefrom that is greater than or equal to a height of the neck of the preforms, the guiding of the preforms by the neck guide preventing the collars of two successive preforms from overlapping; the circulating element bears, over at least a part of the path, on a lateral guide via the internal face; this method being characterized in that: the external face forms, for its part, a succession of crenellations, each crenellation bearing a brush; the position of the guide is adjustable transversely. the preforms are guided by means of a neck guide that extends vertically in line with the rails at a distance therefrom that is greater than or equal to a height of the neck of the preforms, the guiding of the preforms by the neck guide preventing the collars of two successive preforms from overlapping; the circulating element bears, over at least a part of the path, on a lateral guide via the internal face; this method being characterized in that: the external face forms, for its part, a succession of crenellations, each crenellation bearing a brush; the position of the guide is adjustable transversely. the external face forms, for its part, a succession of crenellations, each crenellation bearing a brush; the position of the guide is adjustable transversely.
Polyamide composition that is thermally adhesive to an acrylonitrile-based elastomeric substrate, characterized in that it comprises from 10 mol% to 100 mol% of tertiary amide functions relative to the total number of moles of amide functions in the composition.