mhurhangee/ep-ind-claims huggingface dataset:
A laparoscopic visualization system for heating, applying anti-fog solution to, and protecting of the surgical scope distal lens prior to and during a surgical procedure, the laparoscopic visualization system comprising, a shell to serve as an enclosure, the shell having a central chamber for holding a liquid into which a surgical scope can be inserted, a heating element in thermal transfer relationship with the chamber for warming the liquid wherein the chamber comprises a vessel having a wall surrounding a central compartment adapted to contain the liquid with the heating element in thermal transfer relationship therewith, a thermoswitch in heat-conductive relationship with both the heating element and the vessel, the central chamber being adapted to receive the distal end of a surgical scope to provide an anti-fogging function for the scope, a cover member over the chamber that has an orifice therein for introducing the surgical scope into the chamber, and a flexible valve member having centrally tapered wall elements that separate from one another when the surgical scope is inserted therethrough, characterized in that the chamber has a vent aperture communicating therewith for venting air from the chamber when the scope is inserted into the chamber, wherein an upper portion of the chamber is constructed and arranged to act as a laparoscopic liquid leakage reducer including the vent aperture, wherein the liquid leakage reducer is adapted to provide a fit around the surgical scope when inserted, and the valve member is located proximate the upper portion of the chamber for reducing or eliminating the loss of the liquid from the chamber when the scope is inserted therethrough.
An integrally bladed rotor comprising: an outer rim having a plurality of blades extending radially outwardly of said outer rim; a plurality of channels being formed radially inwardly of said outer rim and extending through an axial width of the integrally bladed rotor; and a plurality of discontinuities (88, 90, 92) formed at a radially outer surface of said outer rim, each discontinuity (88, 90, 92) lying in one plane with a respective channel, including a first thin slot at a radially outer face of said outer rim with an enlarged seal holding area, a second thin slot positioned radially inwardly of said seal holding area and intersecting said channel, said first and second thin slots (88, 92) being thinner circumferentially than said enlarged seal holding area, and a seal inserted into said seal holding area, said seal not extending into said first and second thin slots (88, 92) and said seal not extending into said channels, characterised in that: each said discontinuity (88, 90, 92) is formed non-parallel to a chord line at a respective root of said blades; each said discontinuity (88, 90, 92) is formed non-parallel to a central axis of said integrally bladed rotor; each said channel is formed non-parallel to said chord line at a respective root of said blades; and each said channel is formed non-parallel to said central axis of said integrally bladed rotor. an outer rim having a plurality of blades extending radially outwardly of said outer rim; a plurality of channels being formed radially inwardly of said outer rim and extending through an axial width of the integrally bladed rotor; and a plurality of discontinuities (88, 90, 92) formed at a radially outer surface of said outer rim, each discontinuity (88, 90, 92) lying in one plane with a respective channel, including a first thin slot at a radially outer face of said outer rim with an enlarged seal holding area, a second thin slot positioned radially inwardly of said seal holding area and intersecting said channel, said first and second thin slots (88, 92) being thinner circumferentially than said enlarged seal holding area, and a seal inserted into said seal holding area, said seal not extending into said first and second thin slots (88, 92) and said seal not extending into said channels, characterised in that: each said discontinuity (88, 90, 92) is formed non-parallel to a chord line at a respective root of said blades; each said discontinuity (88, 90, 92) is formed non-parallel to a central axis of said integrally bladed rotor; each said channel is formed non-parallel to said chord line at a respective root of said blades; and each said channel is formed non-parallel to said central axis of said integrally bladed rotor. each said discontinuity (88, 90, 92) is formed non-parallel to a chord line at a respective root of said blades; each said discontinuity (88, 90, 92) is formed non-parallel to a central axis of said integrally bladed rotor; each said channel is formed non-parallel to said chord line at a respective root of said blades; and each said channel is formed non-parallel to said central axis of said integrally bladed rotor.
Method for synchronizing clocks (1, 2) in nodes of a vehicle network of a motor vehicle, in which the nodes communicate with one another by means of a communications protocol which is not synchronized, in which a master node having a master clock sends out synchronization messages, which are evaluated in a slave node having a slave clock, wherein the timing signal of the slave clock is adapted to the timing signal of the master clock, and in which the transmission delay for a message between the master node and the slave node is taken into account in correcting a time difference between the master clock and the slave clock, characterized in that at least for the first synchronization of the slave clock to the master clock after the nodes of the vehicle network are started up, a default transmission delay is used in the slave node to correct the time difference between the master node and the slave node.
A device for sucking gases from a housing of an internal combustion engine, this device being connected to a circuit for admission of air, including a compressor, itself connected to the internal combustion engine, this device including: - a principal degassing circuit connected to the internal combustion engine, - a compression degassing circuit connected to an inlet of the compressor; - a cleaning degassing circuit connected on an outlet of the compressor; - a selector connected to the principal degassing circuit, to the compression degassing circuit and to the cleaning degassing circuit, comprising a compression position permitting the passage of fluids in the principle degassing circuit and the compression degassing circuit, and a cleaning position to permit the passage of the fluids in the principle degassing circuit and the cleaning degassing circuit; this device being characterized in that the circuit for admission of air includes a valve, disposed between the compressor and the internal combustion engine, blocking the link between the compressor and the internal combustion engine when the selector is in cleaning position to permit the purging of the gases from the housing of the principal degassing circuit. - a principal degassing circuit connected to the internal combustion engine, - a compression degassing circuit connected to an inlet of the compressor; - a cleaning degassing circuit connected on an outlet of the compressor; - a selector connected to the principal degassing circuit, to the compression degassing circuit and to the cleaning degassing circuit, comprising a compression position permitting the passage of fluids in the principle degassing circuit and the compression degassing circuit, and a cleaning position to permit the passage of the fluids in the principle degassing circuit and the cleaning degassing circuit;
A mounting system for a circuit receptacle, the mounting system comprising: a socket, the socket being operable to be installed in an opening of an installation surface; a circuit receptacle that includes a locking tab that is configured to secure the circuit receptacle to the socket; and a socket cover that is configured to engage the socket and to cover the circuit receptacle, characterized in that the socket includes a locking recess and in that the socket cover includes a security passage disposed therein and leading to the locking tab, wherein the locking tab is configured to engage the locking recess. a socket, the socket being operable to be installed in an opening of an installation surface; a circuit receptacle that includes a locking tab that is configured to secure the circuit receptacle to the socket; and a socket cover that is configured to engage the socket and to cover the circuit receptacle, characterized in that the socket includes a locking recess and in that the socket cover includes a security passage disposed therein and leading to the locking tab, wherein the locking tab is configured to engage the locking recess.
A cleaning blade, comprising: an elastic member including a contact portion to contact a surface of a member to be cleaned and remove an extraneous matter adhering to the surface of the member, wherein the contact portion includes a modified portion including at least one of: an impregnated portion including a first cured material formed of a first curing composition in a thickness direction from a surface of the contact portion; and a surface layer formed of a second curing composition on the surface of the contact portion; wherein a surface of the modified portion has a tack maximum value not greater than 3.0 gf/mm 2 (29.4 x 10 3 N/m 2); and wherein the tack maximum value is obtained by: a tacking tester having an SUS probe with a diameter of 5 mm or 8 mm, configured to measure an undersurface of the blade of the elastic member under a load of 200 g, a pressing time of 2 secs, a drawing speed of 600 mm/min, and a temperature of 23°C; wherein an end of the SUS probe position is an edge ridgeline of the elastic member; repeating this measurement three times, and averaging the measured values. an elastic member including a contact portion to contact a surface of a member to be cleaned and remove an extraneous matter adhering to the surface of the member, wherein the contact portion includes a modified portion including at least one of: an impregnated portion including a first cured material formed of a first curing composition in a thickness direction from a surface of the contact portion; and a surface layer formed of a second curing composition on the surface of the contact portion; an impregnated portion including a first cured material formed of a first curing composition in a thickness direction from a surface of the contact portion; and a surface layer formed of a second curing composition on the surface of the contact portion; wherein a surface of the modified portion has a tack maximum value not greater than 3.0 gf/mm 2 (29.4 x 10 3 N/m 2); and wherein the tack maximum value is obtained by: a tacking tester having an SUS probe with a diameter of 5 mm or 8 mm, configured to measure an undersurface of the blade of the elastic member under a load of 200 g, a pressing time of 2 secs, a drawing speed of 600 mm/min, and a temperature of 23°C; wherein an end of the SUS probe position is an edge ridgeline of the elastic member; repeating this measurement three times, and averaging the measured values. a tacking tester having an SUS probe with a diameter of 5 mm or 8 mm, configured to measure an undersurface of the blade of the elastic member under a load of 200 g, a pressing time of 2 secs, a drawing speed of 600 mm/min, and a temperature of 23°C; wherein an end of the SUS probe position is an edge ridgeline of the elastic member; repeating this measurement three times, and averaging the measured values.
A preparation method of multi-sectional aerosol generating products, wherein, the method comprises the following steps: Step 1, preparation of filter-tip rod: A composite tube is used to wrap a plugging part and a filtering part, there is a first axial length of the interval between the plugging part and the filtering part, the length is a cavity section limited by the composite tube, One end of plugging part far away from the cavity section is an aerosol generating matrix accommodating cavity limited by the composite tube; Step 2, filling of an aerosol generating material: The filter-tip rod is in a vertical state, wherein the aerosol generating matrix accommodating cavity is vertically upward, and the flowing aerosol generating material is filled into the aerosol generating matrix accommodating cavity; Step 3, forming of an aerosol generating rod: Rotate the filter-tip rod filled with aerosol generating material by 180°, so that the aerosol generating matrix accommodating cavity is vertically downward, place it on the plane to dry and expand at a certain temperature, so that the aerosol generating material is solidified to form a fixed aerosol generating rod in the aerosol generating matrix accommodating cavity. Step 1, preparation of filter-tip rod: A composite tube is used to wrap a plugging part and a filtering part, there is a first axial length of the interval between the plugging part and the filtering part, the length is a cavity section limited by the composite tube, One end of plugging part far away from the cavity section is an aerosol generating matrix accommodating cavity limited by the composite tube; A composite tube is used to wrap a plugging part and a filtering part, there is a first axial length of the interval between the plugging part and the filtering part, the length is a cavity section limited by the composite tube, One end of plugging part far away from the cavity section is an aerosol generating matrix accommodating cavity limited by the composite tube; Step 2, filling of an aerosol generating material: The filter-tip rod is in a vertical state, wherein the aerosol generating matrix accommodating cavity is vertically upward, and the flowing aerosol generating material is filled into the aerosol generating matrix accommodating cavity; Step 3, forming of an aerosol generating rod: Rotate the filter-tip rod filled with aerosol generating material by 180°, so that the aerosol generating matrix accommodating cavity is vertically downward, place it on the plane to dry and expand at a certain temperature, so that the aerosol generating material is solidified to form a fixed aerosol generating rod in the aerosol generating matrix accommodating cavity.
An auxiliary frame system for a wheelchair, the wheelchair having a frame comprising two openings to releasably attach axle portions of rear wheels and defining between them a main rear wheel axis; wherein the auxiliary frame system comprises: a pair of wheel displacing elements; characterised in that, the auxiliary frame system further comprises fastening elements to releasably attach each wheel displacing element to the frame of the wheelchair through the openings; wheel holders for bearing respective rear wheels of the wheelchair, wherein each of the wheel holders is associated with a respective wheel displacing element, and the wheel holders define a shifted rear wheel axis between them; at least one anchoring link to releasably secure at least one of the wheel displacing elements to the frame of the wheelchair at an additional attachment point. a pair of wheel displacing elements; characterised in that, the auxiliary frame system further comprises fastening elements to releasably attach each wheel displacing element to the frame of the wheelchair through the openings; wheel holders for bearing respective rear wheels of the wheelchair, wherein each of the wheel holders is associated with a respective wheel displacing element, and the wheel holders define a shifted rear wheel axis between them; at least one anchoring link to releasably secure at least one of the wheel displacing elements to the frame of the wheelchair at an additional attachment point.
A filtration media comprising a fibrous web impregnated with a resin composition comprising lignin, wherein: the fibrous web comprises the lignin in an amount of from 0.1 to 30 wt% by weight of the fibrous web; and the lignin has a weight average molecular weight of less than 20,000 g/mol, when measured according to ASTM D4001-13 standard, said filtration media being characterized in that the density of the lignin is less than 1,2g/ cm 3. the fibrous web comprises the lignin in an amount of from 0.1 to 30 wt% by weight of the fibrous web; and the lignin has a weight average molecular weight of less than 20,000 g/mol, when measured according to ASTM D4001-13 standard, said filtration media being characterized in that the density of the lignin is less than 1,2g/ cm 3.
A hydrogenation treatment catalyst for heavy hydrocarbon oil, wherein a hydrogenation-active component is supported on a silica-containing porous alumina carrier containing 0.1% by mass to 1.5% by mass of silica based on the carrier, the total pore volume is 0.55 mL/g to 0.75 mL/g, and the following conditions to relating to a pore distribution are satisfied: the total volume of pores having a pore diameter of 5 nm to 10 nm is 30% to 45% of the total volume of pores having a pore diameter of 3 nm to 30 nm; the total volume of pores having a pore diameter of 10 nm to 15 nm is 50% to 65% of the total volume of pores having a pore diameter of 3 nm to 30 nm; the total volume of pores having a pore diameter of 30 nm or more is 3% or less of the total pore volume; the average pore diameter of pores having a pore diameter of 10 nm to 30 nm is 10.5 nm to 13 nm; and the total volume of pores having a pore diameter in a range of ± 1 nm from the average pore diameter is 25% or more of the total pore volume of pores having a pore diameter of 3 nm to 30 nm, and wherein the pore volume and the pore distribution are measured by a mercury penetration method and as the mercury penetration apparatus, a porosimeter is used. the total volume of pores having a pore diameter of 5 nm to 10 nm is 30% to 45% of the total volume of pores having a pore diameter of 3 nm to 30 nm; the total volume of pores having a pore diameter of 10 nm to 15 nm is 50% to 65% of the total volume of pores having a pore diameter of 3 nm to 30 nm; the total volume of pores having a pore diameter of 30 nm or more is 3% or less of the total pore volume; the average pore diameter of pores having a pore diameter of 10 nm to 30 nm is 10.5 nm to 13 nm; and the total volume of pores having a pore diameter in a range of ± 1 nm from the average pore diameter is 25% or more of the total pore volume of pores having a pore diameter of 3 nm to 30 nm, and
An operation state diagnostic device (12, 33) for a shock absorber (8A, 8B, 31A - 31D) arranged between a vehicle body and a bogie (3A, 3B) of a railway vehicle, the operation state diagnostic device (12, 33) comprising: a position detection unit configured to obtain a travel position of the railway vehicle to output the travel position; a pressure measurement unit (9A - 9D) configured to measure a pressure value of pressure loaded on a spring mechanism (7A - 7D) provided between the vehicle body and the bogie (3A, 3B) to output the pressure value; a spring mechanism displacement calculation unit configured to calculate a vertical displacement of the spring mechanism (7A - 7D) through use of the pressure value of the spring mechanism (7A - 7D) output from the pressure measurement unit (9A - 9D) to output the vertical displacement; a spring mechanism displacement estimation unit which is arranged on the railway vehicle, and is configured to estimate the vertical displacement of the spring mechanism (7A - 7D) through use of a railway vehicle model obtained by modeling the railway vehicle, the travel position, and the pressure value of the spring mechanism (7A - 7D) to output the vertical displacement; and a shock absorber abnormality determination unit (24, 36) configured to determine an abnormality of the shock absorber (8A, 8B, 31A - 31D) by comparing a calculation value of the vertical displacement of the spring mechanism (7A - 7D) output from the spring mechanism displacement calculation unit and an estimation value of the vertical displacement of the spring mechanism (7A - 7D) output from the spring mechanism displacement estimation unit with each other. a position detection unit configured to obtain a travel position of the railway vehicle to output the travel position; a pressure measurement unit (9A - 9D) configured to measure a pressure value of pressure loaded on a spring mechanism (7A - 7D) provided between the vehicle body and the bogie (3A, 3B) to output the pressure value; a spring mechanism displacement calculation unit configured to calculate a vertical displacement of the spring mechanism (7A - 7D) through use of the pressure value of the spring mechanism (7A - 7D) output from the pressure measurement unit (9A - 9D) to output the vertical displacement; a spring mechanism displacement estimation unit which is arranged on the railway vehicle, and is configured to estimate the vertical displacement of the spring mechanism (7A - 7D) through use of a railway vehicle model obtained by modeling the railway vehicle, the travel position, and the pressure value of the spring mechanism (7A - 7D) to output the vertical displacement; and a shock absorber abnormality determination unit (24, 36) configured to determine an abnormality of the shock absorber (8A, 8B, 31A - 31D) by comparing a calculation value of the vertical displacement of the spring mechanism (7A - 7D) output from the spring mechanism displacement calculation unit and an estimation value of the vertical displacement of the spring mechanism (7A - 7D) output from the spring mechanism displacement estimation unit with each other.
Refrigerator having a thermally insulated housing (1, 4, 5) that surrounds an interior space in which two chilled-goods containers are adjacently and withdrawably mounted spaced apart from a floor within the interior space, wherein the chilled-goods containers are guided by extending elements, characterised in that a longitudinal bearing that extends between the chilled-goods containers and on which in each case one of the extending elements of each chilled-goods container is mounted is supported via at least one transverse bearing which extends beneath the chilled-goods containers, and that in each case one of the two ends of the at least one transverse bearing rests loosely upon a supporting surface of a side wall of the housing (1, 4, 5).
An apparatus comprising: a first carousel rotatably coupled to a base, the first carousel having a first axis of rotation; a second carousel rotatably coupled to the base and vertically spaced over the first carousel such that at least a portion of the second carousel is disposed over the first carousel, the second carousel having a second axis of rotation and a plurality of vessels (112a-112 n); and a first pipetting mechanism rotatable about a third axis of rotation, the third axis of rotation offset from the second axis of rotation, the third axis of rotation disposed within a circumference of the first carousel, the first pipetting mechanism to access the first carousel and the second carousel. a first carousel rotatably coupled to a base, the first carousel having a first axis of rotation; a second carousel rotatably coupled to the base and vertically spaced over the first carousel such that at least a portion of the second carousel is disposed over the first carousel, the second carousel having a second axis of rotation and a plurality of vessels (112a-112 n); and a first pipetting mechanism rotatable about a third axis of rotation, the third axis of rotation offset from the second axis of rotation, the third axis of rotation disposed within a circumference of the first carousel, the first pipetting mechanism to access the first carousel and the second carousel.