mhurhangee/ep-ind-claims huggingface dataset:
Synthetic natural gas production device (10, 20) characterized in that it comprises: - an isothermal methanation reactor (105, 205) comprising: - an inlet (110, 210), for syngas produced by gasifying hydrocarbon material, connected to a syngas supply channel (115, 215), and - an outlet (120, 220) for synthetic natural gas; - a water separation means (125, 225) comprising: - an inlet (130, 230) for the synthetic natural gas, and - an outlet (135, 235) for dehydrated synthetic natural gas; and - a bypass (140, 240) for a portion of the dehydrated synthetic natural gas from the outlet of the water separation means to the syngas supply channel in order to provide the reactor with a mixture of the bypassed syngas and synthetic natural gas. - an isothermal methanation reactor (105, 205) comprising: - an inlet (110, 210), for syngas produced by gasifying hydrocarbon material, connected to a syngas supply channel (115, 215), and - an outlet (120, 220) for synthetic natural gas; - an inlet (110, 210), for syngas produced by gasifying hydrocarbon material, connected to a syngas supply channel (115, 215), and - an outlet (120, 220) for synthetic natural gas; - a water separation means (125, 225) comprising: - an inlet (130, 230) for the synthetic natural gas, and - an outlet (135, 235) for dehydrated synthetic natural gas; and - an inlet (130, 230) for the synthetic natural gas, and - an outlet (135, 235) for dehydrated synthetic natural gas; and - a bypass (140, 240) for a portion of the dehydrated synthetic natural gas from the outlet of the water separation means to the syngas supply channel in order to provide the reactor with a mixture of the bypassed syngas and synthetic natural gas.
A system for medical imaging a region of interest, the system comprising: a support, for supporting at least a portion of a patient's body; a gantry, supporting a plurality of gamma detectors; a 3D sensor; and a processor, wherein the processor is configured to: receive an indication of the kind of image to be taken; receive from the 3D sensor coordinates of at least one point of an outer surface of the patient, the support, or both the patient and the support; and determine at least one parameter affecting an arrangement of the gamma detectors in respect to the region of interest based on the coordinates of the at least one point and the kind of image to be taken, wherein the at least one parameter comprises a plurality of gantry angles. a support, for supporting at least a portion of a patient's body; a gantry, supporting a plurality of gamma detectors; a 3D sensor; and a processor, wherein the processor is configured to: receive an indication of the kind of image to be taken; receive from the 3D sensor coordinates of at least one point of an outer surface of the patient, the support, or both the patient and the support; and determine at least one parameter affecting an arrangement of the gamma detectors in respect to the region of interest based on the coordinates of the at least one point and the kind of image to be taken, wherein the at least one parameter comprises a plurality of gantry angles. receive an indication of the kind of image to be taken; receive from the 3D sensor coordinates of at least one point of an outer surface of the patient, the support, or both the patient and the support; and determine at least one parameter affecting an arrangement of the gamma detectors in respect to the region of interest based on the coordinates of the at least one point and the kind of image to be taken, wherein the at least one parameter comprises a plurality of gantry angles.
A container comprising a first plurality of strips (11-1 to 11-15) which in the unfolded state form the bottom surface and at least one end wall of the container; and a second plurality of strips (12-1 to 12-9, 12-10 to 12-18) which in the unfolded state form at least one sidewall of the container, wherein the container in the unfolded state has a height, a length and a width, and wherein, in the folded state, the first plurality of strips and the second plurality of strips in their respective main direction are aligned in the same direction, wherein the container comprises at least one first continuous connection which unites the first plurality of strips, and wherein the container comprises at least one second continuous connection which unites the second plurality of strips, and wherein the first or second through-connection comprises an articulated shape, characterized in that the container in the folded state can essentially be reduced to the width.
A rocker arm assembly operable in a combustion engine drive mode and an engine braking mode, and configured to selectively open first and second exhaust valves, the assembly comprising: a rocker shaft; an exhaust valve rocker arm configured to receive and rotate about the rocker shaft; a rotating stepped engine brake capsule coupled to the exhaust valve rocker arm and having a castellation mechanism (60, 62), wherein the rotating stepped engine brake capsule is movable between a locked, engine brake active position and an unlocked, engine brake inactive position; a plunger assembly coupled to the exhaust valve rocker arm and operatively associated with the rotating stepped engine brake capsule; and an intermediate member configured to selectively engage the plunger assembly to move the rotating stepped engine brake capsule between the locked and unlocked positions; characterized in that the intermediate member is an intermediate arm configured to rotate about the rocker shaft. a rocker shaft; an exhaust valve rocker arm configured to receive and rotate about the rocker shaft; a rotating stepped engine brake capsule coupled to the exhaust valve rocker arm and having a castellation mechanism (60, 62), wherein the rotating stepped engine brake capsule is movable between a locked, engine brake active position and an unlocked, engine brake inactive position; a plunger assembly coupled to the exhaust valve rocker arm and operatively associated with the rotating stepped engine brake capsule; and an intermediate member configured to selectively engage the plunger assembly to move the rotating stepped engine brake capsule between the locked and unlocked positions; characterized in that the intermediate member is an intermediate arm configured to rotate about the rocker shaft.
A gas bag arrangement for a vehicle occupant restraint system, comprising - a gas bag inflatable by a gas generator to protect a vehicle occupant, whose envelope defines an interior space of the gas bag that can be filled with gas, - a vent opening (22, 22a, 22b) through which gas can flow out of the gas bag, and - a device for controlling the outlet cross-section of the vent opening (22, 22a, 22b), which comprises at least one covering part (7, 7a, 7b) with which the vent opening (22, 22a, 22b) can be covered, in order to at least partly close the same, and which furthermore comprises an actuating mechanism which interacts with the covering part (7, 7a, 7b), in order to vary the outlet cross-section of the vent opening (22, 22a, 22b), wherein the actuating mechanism includes an additional gas source and an element different from the gas bag and inflatable by means of the gas source, which during inflation interacts with the covering part (7, 7a, 7b) such that it effects a change in the outlet cross-section of the vent opening (22, 22a, 22b), characterized in that the covering part (7, 7a, 7b) is connected with the envelope of the gas bag by means of at least one fixed connection and at least one releasable connection and that the inflatable element is formed as an element different from the covering part (7, 7a, 7b) which via a releasable connection likewise is connected with the envelope of the gas bag, wherein via the releasable connection the inflatable element is connected with the envelope of the gas bag, via which the covering part (7, 7a, 7b) also is connected with the envelope of the gas bag. - a gas bag inflatable by a gas generator to protect a vehicle occupant, whose envelope defines an interior space of the gas bag that can be filled with gas, - a vent opening (22, 22a, 22b) through which gas can flow out of the gas bag, and - a device for controlling the outlet cross-section of the vent opening (22, 22a, 22b), which comprises at least one covering part (7, 7a, 7b) with which the vent opening (22, 22a, 22b) can be covered, in order to at least partly close the same, and which furthermore comprises an actuating mechanism which interacts with the covering part (7, 7a, 7b), in order to vary the outlet cross-section of the vent opening (22, 22a, 22b),
A combustor which constitutes an external swirl burner for use in industrial, household, and commercial heating appliances, the combustor producing a swirling, spiralling and/or rotating flame about and along its exterior, the combustor comprising: a tube extending from a first end to a second end and having an outer surface and an inner surface defining a central passage, the central passage being supplied at the first end with a mixture of air and combustible fuel pre-mixed upstream of the tube, the second end being closed by an end wall in a fluid-tight manner, the tube having fluid directing structure for directing the pre-mixed mixture radially outward from the central passage to an exterior of the tube such that the pre-mixed mixture rotates radially about the central axis along the exterior of the tube, wherein the combustor does not include an outer tube or housing such that the tube defines both the exterior and interior of the combustor.
Method for tuning a resonant frequency of a piezoelectric component comprising a transducer extended in three spatial directions wherein the resonant frequency is dependent on an extent in at least one of the spatial directions and/or a material-dependent modulus of elasticity, the transducer comprising a layer structure with at least four electrodes (21' to 24') arranged alternately one above another, wherein first electrodes and second electrodes are connected to the surfaces (51', 52') of the component that are provided at both ends, third electrodes are connected to a third surface and fourth electrodes are connected to a fourth surface, wherein third and fourth surfaces (53', 54') are arranged along the longitudinal direction of the component, comprising: - applying a DC voltage (V 3, V 4) to two of the four surfaces, such that a change in the resonant frequency is generated on account of one from a change in the extent in the at least one of the spatial directions and the modulus of elasticity; - applying a control voltage (V 1, V 2) for generating the oscillation to the other two of the four surfaces (51' to 54') with an excitation frequency that substantially corresponds to the changed resonant frequency. - applying a DC voltage (V 3, V 4) to two of the four surfaces, such that a change in the resonant frequency is generated on account of one from a change in the extent in the at least one of the spatial directions and the modulus of elasticity; - applying a control voltage (V 1, V 2) for generating the oscillation to the other two of the four surfaces (51' to 54') with an excitation frequency that substantially corresponds to the changed resonant frequency.
A scroll compressor comprising shoulder sections (16F, 16G) at an end surface and a bottom surface of spiral wraps (15B, 16B) of a paired fixed scroll member and revolving scroll member, which are constructed by vertically mounting the spiral wraps on end plates, and configured to be capable of three-dimensional compression in a circumferential direction and a height direction of the spiral wraps by setting a spiral wrap height further toward the outside of the spiral wraps than the shoulder sections greater than the spiral wrap height at the inward side, wherein the shoulder sections (16F, 16G) provided on the end surface and the bottom surface of the spiral wrap are constructed of a plurality of shoulder sections (16L, 16M), and the heights of the shoulder sections (16F, 16G) are set to heights such that base stresses at the respective shoulder sections are substantially equal and characterized in that a shoulder-to-shoulder distance H satisfies H ≥ 2 L1 when the ratio of the maximum stress σmax to the minimum stress σmin is set to σmax / σmin ≤ 1.5, where L1 represents the height of a high shoulder section of the plurality of shoulder sections (16F, 16G) on the inner side in the spiral direction, H represents the shoulder-to-shoulder distance between the high shoulder section and a low shoulder section on the outer side in the spiral direction, and σ represents the stress at the high shoulder section and the low shoulder section.
A method of manufacturing a wearable article assembled by a front belt, a back belt, and a central chassis, the central chassis having a front waist region and a back waist region separated from each other by a crotch region; wherein at least one of the front belt and the back belt is formed by an elastic belt, the method comprising making the elastic belt (84. 86) and joining to the central chassis by the steps of; advancing a first layer of continuous sheet having a first surface and an opposing second surface in a machine direction and defining a width in a cross machine direction; advancing a second layer of continuous sheet having a first surface and an opposing second surface in the machine direction and having a smaller width than the first layer of continuous sheet; advancing a first group of elastic bodies in the machine direction in a stretched state; joining the first group of elastic bodies between the first surface of the first layer and the first surface of the second layer of continuous sheets (92CS, 94CS) to form a primary elastic belt precursor advancing a second group of elastic bodies in the machine direction in a stretched state; joining the second group of elastic bodies to the first surface of the first layer of continuous sheet of the primary elastic belt precursor; joining the central chassis to the second surface of the second layer of continuous sheet; folding the first layer of continuous sheet to form a first layer fold over of continuous sheet, such that at least one of the second group of elastic bodies is directly joined between the first surface of the first layer of continuous sheet and the first surface of the first layer fold over of continuous sheet.
An endoscopic forceps in which a movable blade electrode and a fixed blade electrode form a pair of electrodes, wherein a high frequency wave can be applied between the movable blade electrode and the fixed blade electrode, wherein the fixed blade electrode is fixed to a sheath conduit and arranged to be electrically contacted onto first electric conductor in the sheath conduit, wherein a force application point of the movable blade electrode is connected to a second electric conductor, wherein a pivot point of the movable blade electrode is provided on the movable blade electrode which is turnably connected to an electric insulator fixed to the fixed blade electrode or the sheath conduit, or is provided on the electric insulator fixed to the movable blade electrode which is turnably connected to the sheath conduit or the fixed blade electrode, wherein the second conductor can be slid with respect to the sheath conduit so that axial motion of the second conductor is transmitted to the movable blade electrode as turning motion about the pivot point via the force application point of the movable blade electrode to open and close the forceps with the movable blade electrode and the fixed blade electrode, and wherein the high frequency wave can be applied via the first electric conductor and the second electric conductor, characterized in that the first conductor is an external electric conductor of a coaxial cable, in that the second conductor is a center electric conductor of the coaxial cable and in that the coaxial cable is slidable to transmit the motion.
A fluid-filter monitor apparatus for operating at a fluid-maintenance site, the fluid-filter monitor apparatus comprising: a fluid filter, a sensor configured and arranged to provide parameters that characterize fluid flowing through the fluid filter, and a wireless interface circuit (103, 203); the wireless interface circuit (103, 203) configured and arranged to operate in a set-up mode by communicating authentication data with a mobile data-processing device (110, 210) while the mobile data-processing device (110, 210) is proximate to the fluid-maintenance site, the authentication data being defined by an authentication protocol and including connection-authorization information for connecting to a local WiFi network for transmitting the parameters to a remotely-situated server (108, 208); and operate in a normal-operation mode by sending the parameters wirelessly, according to the authentication protocol, to the remotely-situated server (108, 208) via a wireless communication medium and a broadband connection. a fluid filter, a sensor configured and arranged to provide parameters that characterize fluid flowing through the fluid filter, and a wireless interface circuit (103, 203); the wireless interface circuit (103, 203) configured and arranged to operate in a set-up mode by communicating authentication data with a mobile data-processing device (110, 210) while the mobile data-processing device (110, 210) is proximate to the fluid-maintenance site, the authentication data being defined by an authentication protocol and including connection-authorization information for connecting to a local WiFi network for transmitting the parameters to a remotely-situated server (108, 208); and operate in a normal-operation mode by sending the parameters wirelessly, according to the authentication protocol, to the remotely-situated server (108, 208) via a wireless communication medium and a broadband connection. operate in a set-up mode by communicating authentication data with a mobile data-processing device (110, 210) while the mobile data-processing device (110, 210) is proximate to the fluid-maintenance site, the authentication data being defined by an authentication protocol and including connection-authorization information for connecting to a local WiFi network for transmitting the parameters to a remotely-situated server (108, 208); and operate in a normal-operation mode by sending the parameters wirelessly, according to the authentication protocol, to the remotely-situated server (108, 208) via a wireless communication medium and a broadband connection.
Cooking device light, - having a bracket that forms a light source receiver, in which a light source in the form of a board with at least one LED light sits, and which has a connecting piece that is connected via an opening to the receiver for the light source, - having a light guide rod, which sits in the connecting piece and in which the light from the light source is fed through the opening between the connecting piece and the light source receiver, wherein the light guide rod is fixed in the bracket by means of a tightly fitting connection, wherein - the tightly fitting connection is formed by a holding part on the side of the bracket and a peripheral indent on the side of the light guide rod, wherein the holding part engages in the peripheral indent to fix the light guide rod on the bracket, characterised in that the connecting piece for the light guide rod has a hole in its surrounding wall, and the holding part is formed by an R-pin, which can be placed on the connecting piece on the outer periphery, having at least one holding shank, which engages in the peripheral indent, which is aligned with the hole, of the light guide rod. - having a bracket that forms a light source receiver, in which a light source in the form of a board with at least one LED light sits, and which has a connecting piece that is connected via an opening to the receiver for the light source, - having a light guide rod, which sits in the connecting piece and in which the light from the light source is fed through the opening between the connecting piece and the light source receiver, wherein the light guide rod is fixed in the bracket by means of a tightly fitting connection, wherein - the tightly fitting connection is formed by a holding part on the side of the bracket and a peripheral indent on the side of the light guide rod, wherein the holding part engages in the peripheral indent to fix the light guide rod on the bracket, characterised in that the connecting piece for the light guide rod has a hole in its surrounding wall, and the holding part is formed by an R-pin, which can be placed on the connecting piece on the outer periphery, having at least one holding shank, which engages in the peripheral indent, which is aligned with the hole, of the light guide rod.
A dialysis system (10, 12) comprising: at least one dialysis fluid pump (60a, 60b) configured to pump a dialysis fluid to and from a patient over a treatment; and a logic implementer configured to control the dialysis fluid pumped by the at least one dialysis fluid pump to and from the patient over the treatment and to store a trend of ultrafiltration ("UF") data points for the patient, wherein the logic implementer is further configured to: (i) use at least one of the UF data points to predict the patient's intra-peritoneal volume ("IPV") at the end of at least one dwell and/or use one of the UF data points in a tidal treatment to predict a residual volume of effluent fluid left in the patient's peritoneum after at least one patient drain, and (ii) ensure that a prescribed volume of treatment fluid is used during the treatment and/or that the treatment finishes by a predetermined time by determining whether at least one of (a) at least one treatment cycle is to be added to the treatment, (b) a drain volume is to be changed, or (c) a fill volume is to be changed, and wherein at least one of (a), (b), or (c) is performed using the at least one dialysis fluid pump. at least one dialysis fluid pump (60a, 60b) configured to pump a dialysis fluid to and from a patient over a treatment; and a logic implementer configured to control the dialysis fluid pumped by the at least one dialysis fluid pump to and from the patient over the treatment and to store a trend of ultrafiltration ("UF") data points for the patient, wherein the logic implementer is further configured to: (i) use at least one of the UF data points to predict the patient's intra-peritoneal volume ("IPV") at the end of at least one dwell and/or use one of the UF data points in a tidal treatment to predict a residual volume of effluent fluid left in the patient's peritoneum after at least one patient drain, and (ii) ensure that a prescribed volume of treatment fluid is used during the treatment and/or that the treatment finishes by a predetermined time by determining whether at least one of (a) at least one treatment cycle is to be added to the treatment, (b) a drain volume is to be changed, or (c) a fill volume is to be changed, and wherein at least one of (a), (b), or (c) is performed using the at least one dialysis fluid pump.