mhurhangee/ep-ind-claims huggingface dataset:
A dose indicator comprising, a chassis comprising a chassis frame (4, 104, 204, 304) and a displacement portion moveable relative to the chassis frame (4, 104, 204, 304), an indexable first display unit, mountable on the chassis, the first display unit being indexable about a first display axis, the indexable first display unit comprising a plurality of indexing teeth (38, 138), a first display non-return arm (8, 108, 308), and a drive pawl (6, 106, 206, 306) connected at its proximal part to the displacement portion, the drive pawl (6, 106, 206, 306) comprising: jaws (50, 52) at its distal part extending directly from the pawl (6, 106, 206, 306), the inner surfaces of which define a socket (54, 154), the socket (54, 154) being adapted to engage an indexing tooth (38a, 38b, 138a, 138b, 138c) of the first display unit during indexing, and an outer surface adapted to engage a subsequent indexing tooth (38a, 38b, 138a, 138b, 138c) during resetting of the pawl (6, 106, 206, 306) after indexing, wherein the first display non-return arm (8, 108, 308) is connected at its proximal end to the chassis frame (4, 104, 204, 304) such that the drive pawl (6, 106, 206, 306) is moveable relative to the proximal end of the first display non-return arm (8, 108, 308); and is positioned to prevent reverse rotation of the first display unit as the drive pawl (6, 106, 206, 306) resets. a chassis comprising a chassis frame (4, 104, 204, 304) and a displacement portion moveable relative to the chassis frame (4, 104, 204, 304), an indexable first display unit, mountable on the chassis, the first display unit being indexable about a first display axis, the indexable first display unit comprising a plurality of indexing teeth (38, 138), a first display non-return arm (8, 108, 308), and a drive pawl (6, 106, 206, 306) connected at its proximal part to the displacement portion, the drive pawl (6, 106, 206, 306) comprising: jaws (50, 52) at its distal part extending directly from the pawl (6, 106, 206, 306), the inner surfaces of which define a socket (54, 154), the socket (54, 154) being adapted to engage an indexing tooth (38a, 38b, 138a, 138b, 138c) of the first display unit during indexing, and an outer surface adapted to engage a subsequent indexing tooth (38a, 38b, 138a, 138b, 138c) during resetting of the pawl (6, 106, 206, 306) after indexing, jaws (50, 52) at its distal part extending directly from the pawl (6, 106, 206, 306), the inner surfaces of which define a socket (54, 154), the socket (54, 154) being adapted to engage an indexing tooth (38a, 38b, 138a, 138b, 138c) of the first display unit during indexing, and an outer surface adapted to engage a subsequent indexing tooth (38a, 38b, 138a, 138b, 138c) during resetting of the pawl (6, 106, 206, 306) after indexing, wherein the first display non-return arm (8, 108, 308) is connected at its proximal end to the chassis frame (4, 104, 204, 304) such that the drive pawl (6, 106, 206, 306) is moveable relative to the proximal end of the first display non-return arm (8, 108, 308); and is positioned to prevent reverse rotation of the first display unit as the drive pawl (6, 106, 206, 306) resets.
A process of producing a Faraday rotator comprising a cylinder of material having a Verdet constant at a wavelength of 1.06 μm of at least 0.27 min/(Oe·cm) or 78,53 rad T -1 m -1 and an optical axis; and a first hollow magnet disposed on the outer periphery of the cylinder and second and third hollow magnet units disposed so as to sandwich the first hollow magnet along the optical axis, each of the second and third hollow magnet units comprising 2 or more magnets equally divided in a plane perpendicular to the optical axis, the cylinder having applied thereto a magnetic flux density B in the range of Formula below, the cylinder having a length L along the optical axis in the range of Formula below, and the cylinder having an external diameter D in the range of Formula below: 0.5 T ≤ B ≤ 1.5 T 0.70 cm ≤ L ≤ 1.10 cm 0.20 cm ≤ D ≤ 0.60 cm wherein the material comprises an oxide represented by Formula below in at least 99 wt% (Tb x R 1-x) 2 O 3, wherein 0.5 ≤ x ≤ 1.0, and R comprises at least one element selected from the group consisting of scandium, yttrium, and lanthanoid elements other than Tb; and wherein the process comprises the steps of: grinding an outer peripheral face of the cylinder by 1.0 mm or greater to reduce the external diameter D to the diameter of Formula, and polishing opposite end faces of the cylinder by 0.5 mm or greater for each face to reduce the length to the length L of Formula.
A threshing element comprising: a structure having an outside surface for threshing a crop material, and an inside surface; and a body (40, 140) operatively connected to a sensor; characterized in that the body (40, 140) is secured to the inside surface of the structure, the body (40, 140) having a connecting feature (34, 58, 60, 62, 68) for securing at least the body (40, 140) and the structure to each other, the structure securable to a rotatable threshing rotor of a harvester threshing system; and in that the sensor is operative to, in response to operation of the threshing rotor of the harvester threshing system, output a signal corresponding to forces generated by contact between the outside surface of the structure and the crop material. a structure having an outside surface for threshing a crop material, and an inside surface; and a body (40, 140) operatively connected to a sensor; characterized in that the body (40, 140) is secured to the inside surface of the structure, the body (40, 140) having a connecting feature (34, 58, 60, 62, 68) for securing at least the body (40, 140) and the structure to each other, the structure securable to a rotatable threshing rotor of a harvester threshing system; and in that the sensor is operative to, in response to operation of the threshing rotor of the harvester threshing system, output a signal corresponding to forces generated by contact between the outside surface of the structure and the crop material.
Joint implant for new tissue formation at a joint, wherein the joint implant comprises a rod-shaped body with a base area, a cover area and a sleeve area, wherein a thread structure is at least partially formed on the sleeve area of the joint implant, and characterized in that at least the cover area and the thread structure, in particular the entire rod-shaped body, of the joint implant have an artificial trabecular structure produced by a 3D printing process such that a hydrophobic surface for facilitating chondrocyte differentiation of mesenchymal stem cells is implemented. wherein a thread structure is at least partially formed on the sleeve area of the joint implant, and characterized in that at least the cover area and the thread structure, in particular the entire rod-shaped body, of the joint implant have an artificial trabecular structure produced by a 3D printing process such that a hydrophobic surface for facilitating chondrocyte differentiation of mesenchymal stem cells is implemented.
A dishwasher comprising: a washing tub that accommodates wash objects such as tableware; a washing unit that circulates washing water inside the washing tub through a washing water circulation path and washes the wash objects with the washing water; a turbidity sensor unit that measures turbidity of the washing water inside the washing water circulation path; and a control unit that controls operation of the turbidity sensor unit according to input from the turbidity sensor unit, wherein the turbidity sensor unit comprises: a light emitting element and a light receiving element placed facing each other and sandwiching a given part of the washing water circulation path; a light emission control circuit that controls an amount of light emission from the light emitting element according to PWM output from the control unit; and a light receiving circuit that inputs a converted voltage value (AD_IN) obtained by converting a current passing through the light receiving element, to the control unit, characterized in that: the control unit has a plurality of predetermined voltage reference values to be compared with the converted voltage value (AD_IN) of the light receiving circuit, the control unit comparing the converted voltage value (AD_IN) with a value of the plurality of predetermined voltage reference values and setting the PWM output to sense the turbidity of the washing water to a PWM output value at which the converted voltage value (AD_IN) matches the predetermined voltage reference value. a washing tub that accommodates wash objects such as tableware; a washing unit that circulates washing water inside the washing tub through a washing water circulation path and washes the wash objects with the washing water; a turbidity sensor unit that measures turbidity of the washing water inside the washing water circulation path; and a control unit that controls operation of the turbidity sensor unit according to input from the turbidity sensor unit, a light emitting element and a light receiving element placed facing each other and sandwiching a given part of the washing water circulation path; a light emission control circuit that controls an amount of light emission from the light emitting element according to PWM output from the control unit; and a light receiving circuit that inputs a converted voltage value (AD_IN) obtained by converting a current passing through the light receiving element, to the control unit, the control unit has a plurality of predetermined voltage reference values to be compared with the converted voltage value (AD_IN) of the light receiving circuit, the control unit comparing the converted voltage value (AD_IN) with a value of the plurality of predetermined voltage reference values and setting the PWM output to sense the turbidity of the washing water to a PWM output value at which the converted voltage value (AD_IN) matches the predetermined voltage reference value.
A five- or six-membered heterocyclic compound having structural Formula (Ib): or a salt or solvate thereof; wherein either R 5 or R 6 is C 1 -C 3 alkyl, and the remaining R 5 or R 6 is selected from the group consisting of optionally substituted alkyl, optionally substituted alkenyl, optionally substituted alkynyl, optionally substituted alkylaryl, optionally substituted heteroalkyl, optionally substituted carbocyclyl, or optionally substituted heterocyclyl; or alternatively, R 5 and R 6, taken together with the atoms to which they are attached, form an optionally substituted carbocyclic ring; X and X 1 are N; R 7 is hydrogen, or optionally substituted C 1 -C 6 alkyl; R 8 is selected from the group consisting of -alkylene-carbonyl-aryl, -alkylene-carbonyl-heteroaryl, -alkylene-carbonyl-(substituted aryl), -alkylene-carbonyl-(substituted heteroaryl), -alkylene-carbonyl-NR 9 -aryl, and -alkylene-carbonyl-NR 9 -(substituted aryl); R 9 is selected from the group consisting of hydrogen, optionally substituted alkyl, optionally substituted aryl, optionally substituted arylalkyl, optionally substituted heteroalkyl, optionally substituted heteroaryl, optionally substituted heteroarylalkyl, optionally substituted acylamido, and optionally substituted diacylamido; A is O; and B and C are independently CH 2, C=O, or a covalent bond; provided that B and C are not both a covalent bond. either R 5 or R 6 is C 1 -C 3 alkyl, and the remaining R 5 or R 6 is selected from the group consisting of optionally substituted alkyl, optionally substituted alkenyl, optionally substituted alkynyl, optionally substituted alkylaryl, optionally substituted heteroalkyl, optionally substituted carbocyclyl, or optionally substituted heterocyclyl; or alternatively, R 5 and R 6, taken together with the atoms to which they are attached, form an optionally substituted carbocyclic ring; X and X 1 are N; R 7 is hydrogen, or optionally substituted C 1 -C 6 alkyl; R 8 is selected from the group consisting of -alkylene-carbonyl-aryl, -alkylene-carbonyl-heteroaryl, -alkylene-carbonyl-(substituted aryl), -alkylene-carbonyl-(substituted heteroaryl), -alkylene-carbonyl-NR 9 -aryl, and -alkylene-carbonyl-NR 9 -(substituted aryl); R 9 is selected from the group consisting of hydrogen, optionally substituted alkyl, optionally substituted aryl, optionally substituted arylalkyl, optionally substituted heteroalkyl, optionally substituted heteroaryl, optionally substituted heteroarylalkyl, optionally substituted acylamido, and optionally substituted diacylamido; A is O; and B and C are independently CH 2, C=O, or a covalent bond; provided that B and C are not both a covalent bond.
Domestic refrigeration appliance having a housing, in which a receptacle chamber (7, 8) for foodstuffs is embodied, and having a door (9, 10), which is arranged on the housing in a moveable manner to close off the receptacle chamber (7, 8), and having a bearing bracket (13, 14, 15), by way of which the door (9, 10) is connected to the housing, wherein the bearing bracket (13, 14, 15) is made of metal from an integral blank and has a first plate-shaped bearing bracket part, at which a second bearing bracket part arranged at an angle thereto opens out, and the bearing bracket (13, 14, 15) has a bearing journal, wherein the bearing bracket (13, 14, 15) has a plate-shaped support roof, which opens out at the first bearing bracket part and is arranged at an angle thereto, wherein the support roof extends with an overhang, in sections even in the manner of a roof, above the second bearing bracket part, characterised in that the bearing journal extends elevated above the upper side of the support roof facing away from the bearing bracket parts (16, 19), projecting beyond said upper side.
Method for inside anti-corrosion protection of welded joints of pipes with an interior protective coating, which comprises: placement of a protective liner coaxially inside the pipes to be joined, with formation of an annular cavity between the outer surface of the liner and the inside surface of the weld joint of the pipes to be insulated with adjacent coating-protected areas; welding of the pipe ends; sealing-off of the annular cavity at liner edges; filling of the annular cavity with a liquid sealant agent via at least one process hole in one or both pipes with subsequent polymerization of the agent, characterized in that, prior to the placement of the protective liner, it is plastically deformed by means of expanding the liner parts to ensure matching the shape and internal diameter of each part of the liner to the shape and internal diameter of the opening of respective pipe in the area of the joint, taking into account the mounting gap between them and the thickness of the inside protective coating, and the placement of the protective liner is effected in the form of inserting one part of the liner into one pipe until it gets rested against a sealant applied onto the inside surface of the first pipe, and then pushing the second pipe onto the other part of the protective liner until it gets rested against a sealant on the inside surface of the second pipe. placement of a protective liner coaxially inside the pipes to be joined, with formation of an annular cavity between the outer surface of the liner and the inside surface of the weld joint of the pipes to be insulated with adjacent coating-protected areas; welding of the pipe ends; sealing-off of the annular cavity at liner edges; filling of the annular cavity with a liquid sealant agent via at least one process hole in one or both pipes with subsequent polymerization of the agent, characterized in that, prior to the placement of the protective liner, it is plastically deformed by means of expanding the liner parts to ensure matching the shape and internal diameter of each part of the liner to the shape and internal diameter of the opening of respective pipe in the area of the joint, taking into account the mounting gap between them and the thickness of the inside protective coating, and the placement of the protective liner is effected in the form of inserting one part of the liner into one pipe until it gets rested against a sealant applied onto the inside surface of the first pipe, and then pushing the second pipe onto the other part of the protective liner until it gets rested against a sealant on the inside surface of the second pipe.
A method for use in a radio equipment node connected to a radio equipment control node for measuring end-to-end processing delay of the RE between an input interface and a transmit port in the downlink direction and a receive port and an output interface on the uplink direction, comprising: a. activating downlink and uplink radio channels at a predetermined carrier frequency; b. adding at said input interface and said receive port, a chirp sine wave to the activated radio channels such that the chirp sine wave becomes mixed with the carrier frequency; c. sampling at the transmit port a received downlink mixed signal and at the output interface a received uplink mixed signal; d. cross-correlating the sampled mixed signals with a reference chirped sine wave to obtain corresponding signal phase shifts; and e. converting the phase shifts obtained from the cross-correlating step to respective time delays and adding the time delays to obtain a time delay associated with the end-to-end processing delay of said RE. a. activating downlink and uplink radio channels at a predetermined carrier frequency; b. adding at said input interface and said receive port, a chirp sine wave to the activated radio channels such that the chirp sine wave becomes mixed with the carrier frequency; c. sampling at the transmit port a received downlink mixed signal and at the output interface a received uplink mixed signal; d. cross-correlating the sampled mixed signals with a reference chirped sine wave to obtain corresponding signal phase shifts; and e. converting the phase shifts obtained from the cross-correlating step to respective time delays and adding the time delays to obtain a time delay associated with the end-to-end processing delay of said RE.
Hyperfrequency interconnection device between two components (40, 50), each component comprising a substantially planar upper face (42, 52) and a signal line (41, 51) arranged on the upper face (42, 52), the planes containing the upper faces (42, 52) of the components (40, 50) being substantially mutually parallel and separated by a distance known as the height difference, the hyperfrequency interconnection device comprising: • a substrate comprising a lower face and a substantially planar upper face defined by a first axis and a second axis perpendicular to the first axis, • a signal line arranged on the lower face of the substrate, a projection of the signal line into the plane of the upper face forming the first axis, • at least two contact pads (90, 91) capable of electrically connecting the signal line of the device to the signal line (41, 51) of each component (40, 50), characterized in that the upper face of the substrate is waved along the second axis, capable of conferring to the substrate flexibility along the first axis. • a substrate comprising a lower face and a substantially planar upper face defined by a first axis and a second axis perpendicular to the first axis, • a signal line arranged on the lower face of the substrate, a projection of the signal line into the plane of the upper face forming the first axis, • at least two contact pads (90, 91) capable of electrically connecting the signal line of the device to the signal line (41, 51) of each component (40, 50),
A method of retrofitting a shielding to an implantable medical lead, comprising: providing a shield layer onto an exterior surface of an insulative lead body of the implantable medical lead between an electrical contact on a proximal end of the insulative lead body and an electrode on a distal end of the insulative lead body with a proximal end of the shield layer being spaced distally from the electrical contact and with a distal end of the shield layer being spaced proximally from the electrode; and applying an outer insulative layer onto the shield layer while the shield layer is present on the exterior surface of the insulative layer with the outer insulative layer being located between the electrical contact and the electrode. providing a shield layer onto an exterior surface of an insulative lead body of the implantable medical lead between an electrical contact on a proximal end of the insulative lead body and an electrode on a distal end of the insulative lead body with a proximal end of the shield layer being spaced distally from the electrical contact and with a distal end of the shield layer being spaced proximally from the electrode; and applying an outer insulative layer onto the shield layer while the shield layer is present on the exterior surface of the insulative layer with the outer insulative layer being located between the electrical contact and the electrode.
An exhaust gas purifying device comprising: a plurality of gas purifying bodies (2, 3) which purifies an exhaust gas discharged by an engine; a plurality of inside cases (4, 20) which is inward provided with the respective gas purifying bodies (2, 3); and outside cases (5, 21) which are inward provided with the respective inside cases (4, 20), characterized in that an outlet end portion of the inside case in an exhaust gas upstream side and an inlet end portion of the inside case in an exhaust gas downstream side are superposed as a double structure, a sensor boss body (110, 113) for supporting an exhaust gas sensor (63, 109) is arranged in an outside surface of the outlet end portion or the inlet end portion of the double structure, and the sensor boss body (110, 113) is extended to an outside direction of the outside case. a plurality of gas purifying bodies (2, 3) which purifies an exhaust gas discharged by an engine; a plurality of inside cases (4, 20) which is inward provided with the respective gas purifying bodies (2, 3); and outside cases (5, 21) which are inward provided with the respective inside cases (4, 20), characterized in that an outlet end portion of the inside case in an exhaust gas upstream side and an inlet end portion of the inside case in an exhaust gas downstream side are superposed as a double structure, a sensor boss body (110, 113) for supporting an exhaust gas sensor (63, 109) is arranged in an outside surface of the outlet end portion or the inlet end portion of the double structure, and the sensor boss body (110, 113) is extended to an outside direction of the outside case.
A continuous granulating and drying apparatus for pharmaceutical products, comprising a granulator and a fluid bed dryer having a gas inlet, wherein the fluid bed dryer comprises at least two separate processing compartments forming part of a common vessel being provided with radially extending partition walls separating the processing compartments from each other, each processing compartment having a product inlet and a product outlet, the fluid bed dryer comprising a bed plate having openings for fluidizing gas and being arranged above the gas inlet of the fluid bed dryer, a gas outlet, a granulated product supply conduit arranged rotatably to selectively communicate with the product inlet of each separate processing compartment, respectively, a product discharge conduit arranged rotatably to selectively communicate with the product outlet of each separate processing compartment, respectively, characterized in that the granulator comprises a longitudinal granulation chamber having a first end with an inlet for powder material and a binder feed port and a second end with an outlet for granulated product, the granulation chamber comprising at least one rotary shaft provided with at least one granulating element, and the granulator and the fluid bed dryer are closely coupled, and further a transport air inlet is arranged at the outlet of the granulation chamber, so that transport air may carry granulated product away from the outlet in the direction of the fluid bed dryer.