mhurhangee/ep-ind-claims huggingface dataset:
A transportation box, comprising: a plurality of first phase change materials; a plurality of second phase change materials; a first box adapted to enclose a payload box; and a second box adapted to contain temperature sensitive products; characterised in that, said plurality of first phase change materials is filled in pouches; said plurality of second phase change materials is filled in multi celled pouches; a plurality of cassettes, each of said plurality of cassettes comprises at least two said pouches filled with said plurality of first phase change materials, and placed above and below said payload box; said payload box is embedded with said multi celled pouches filled with said plurality of second phase change materials along a bottom panel, a top panel and side panels of said payload box; said second box is nestable within said payload box; said first box is nestable within an outer box; and said plurality of first phase change materials and said plurality of second phase change materials are arranged in a manner such that air in between said payload box and said plurality of first phase change materials controls heat flow into and within said first box. a plurality of first phase change materials; a plurality of second phase change materials; a first box adapted to enclose a payload box; and a second box adapted to contain temperature sensitive products; characterised in that, said plurality of first phase change materials is filled in pouches; said plurality of second phase change materials is filled in multi celled pouches; a plurality of cassettes, each of said plurality of cassettes comprises at least two said pouches filled with said plurality of first phase change materials, and placed above and below said payload box; said payload box is embedded with said multi celled pouches filled with said plurality of second phase change materials along a bottom panel, a top panel and side panels of said payload box; said second box is nestable within said payload box; said first box is nestable within an outer box; and said plurality of first phase change materials and said plurality of second phase change materials are arranged in a manner such that air in between said payload box and said plurality of first phase change materials controls heat flow into and within said first box.
Method for producing a floorboard (9, 10), which has a carrier plate and a top side veneer (2, 3), having the following steps: - providing a large-area starting carrier plate; - providing a number of veneers (2, 3); - forming a multi-layer body made up of the starting carrier plate and the veneers (2, 3) as well as a resin layer provided between the starting carrier plate and the veneers (2, 3), wherein adjacent veneers (2, 3) are positioned at a distance from one another on the starting carrier plate so as to form a gap, as well as a stabilizing layer arranged on the bottom of the starting carrier plate; - connecting starting carrier plate, resin layer, and veneers (2, 3), as well as stabilizing layer, by pressing the multi-layer body in a press, wherein, when the multi-layer body is pressed, the gap between the veneers (2, 3) is filled with resin, wherein, when the multi-layer body is pressed, the resin infiltrates the veneers (2, 3), and pores, cracks, and gaps in the veneer (2, 3) are filled with resin, and the resin penetrates the veneer (2, 3) up to the top side of the veneer (2, 3); - then, the pressed multi-layer body is separated into individual boards (9, 10), wherein the separation is carried out in the region of a filled gap between two adjacent veneers (2, 3), and - the boards (9, 10) are profiled on their side edges (11, 12) and are provided with connecting means (13, 14). - providing a large-area starting carrier plate; - providing a number of veneers (2, 3); - forming a multi-layer body made up of the starting carrier plate and the veneers (2, 3) as well as a resin layer provided between the starting carrier plate and the veneers (2, 3), wherein adjacent veneers (2, 3) are positioned at a distance from one another on the starting carrier plate so as to form a gap, as well as a stabilizing layer arranged on the bottom of the starting carrier plate; - connecting starting carrier plate, resin layer, and veneers (2, 3), as well as stabilizing layer, by pressing the multi-layer body in a press, wherein, when the multi-layer body is pressed, the gap between the veneers (2, 3) is filled with resin, wherein, when the multi-layer body is pressed, the resin infiltrates the veneers (2, 3), and pores, cracks, and gaps in the veneer (2, 3) are filled with resin, and the resin penetrates the veneer (2, 3) up to the top side of the veneer (2, 3); - then, the pressed multi-layer body is separated into individual boards (9, 10), wherein the separation is carried out in the region of a filled gap between two adjacent veneers (2, 3), and - the boards (9, 10) are profiled on their side edges (11, 12) and are provided with connecting means (13, 14).
A composition comprising a conjugated C1 esterase inhibitor (C1-INH) comprising: (i) a C1-INH protein comprising at least one polyethylene glycol moiety; and wherein the at least one PEG moiety is covalently linked to the C1-INH protein via an oxime linkage, wherein the oxime linkage is between the PEG moiety and a glycan residue of C1-INH, wherein the glycan residue is a sialic acid residue, and wherein the conjugated C1-INH has an extended in vivo half-life compared to unconjugated C1-INH; or (ii) a C1-INH protein comprising at least one glycan residue; and at least one polysialic acid moiety, wherein the at least one polysialic acid moiety is covalently linked to the C1-INH protein via an oxime linkage, wherein the oxime linkage is between the PSA moiety and a glycan residue of C1-INH, wherein the glycan residue is a sialic acid residue, and wherein the conjugated C1-INH has an extended in vivo half-life compared to unconjugated C1-INH. (i) a C1-INH protein comprising at least one polyethylene glycol moiety; and wherein the at least one PEG moiety is covalently linked to the C1-INH protein via an oxime linkage, wherein the oxime linkage is between the PEG moiety and a glycan residue of C1-INH, wherein the glycan residue is a sialic acid residue, and wherein the conjugated C1-INH has an extended in vivo half-life compared to unconjugated C1-INH; or (ii) a C1-INH protein comprising at least one glycan residue; and at least one polysialic acid moiety, wherein the at least one polysialic acid moiety is covalently linked to the C1-INH protein via an oxime linkage, wherein the oxime linkage is between the PSA moiety and a glycan residue of C1-INH, wherein the glycan residue is a sialic acid residue, and wherein the conjugated C1-INH has an extended in vivo half-life compared to unconjugated C1-INH. at least one polysialic acid moiety, wherein the at least one polysialic acid moiety is covalently linked to the C1-INH protein via an oxime linkage, wherein the oxime linkage is between the PSA moiety and a glycan residue of C1-INH, wherein the glycan residue is a sialic acid residue, and wherein the conjugated C1-INH has an extended in vivo half-life compared to unconjugated C1-INH.
A rigid endoscope cover (120,220, 320, 420) for covering a part in a circumferential direction of an outer circumferential surface of a rigid endoscope having an observation window portion provided at a tip thereof, the cover (120, 220, 320, 420) comprising: an outer cover portion (122, 222, 322, 422) configured to cover the part in the circumferential direction of the outer circumferential surface of the rigid endoscope and having flexibility; and an inner cover portion (123, 223, 323, 423) provided on an inner surface of the outer cover portion (122, 222, 322, 422) and configured to define a flow passage (124, 126, 224, 226, 324, 326, 424) for a washing fluid to be supplied to the observation window portion of the rigid endoscope, wherein the outer cover portion (122, 222, 322, 422) is configured to be mounted onto the outer circumferential surface of the rigid endoscope by the outer cover portion (122, 222, 322, 422) bending, characterized in that the cover (120, 220, 320, 420) has a C-shape when the cover (120, 220, 320, 420) is seen along the longitudinal direction thereof, to allow the rigid endoscope to be fitted into the space of the C-shaped portion. an outer cover portion (122, 222, 322, 422) configured to cover the part in the circumferential direction of the outer circumferential surface of the rigid endoscope and having flexibility; and an inner cover portion (123, 223, 323, 423) provided on an inner surface of the outer cover portion (122, 222, 322, 422) and configured to define a flow passage (124, 126, 224, 226, 324, 326, 424) for a washing fluid to be supplied to the observation window portion of the rigid endoscope, wherein the outer cover portion (122, 222, 322, 422) is configured to be mounted onto the outer circumferential surface of the rigid endoscope by the outer cover portion (122, 222, 322, 422) bending, characterized in that the cover (120, 220, 320, 420) has a C-shape when the cover (120, 220, 320, 420) is seen along the longitudinal direction thereof, to allow the rigid endoscope to be fitted into the space of the C-shaped portion.
A method for aligning a movable first pipe coaxially with a substantially stationary second pipe to prepare a threaded pin end portion of the first pipe for engagement with a threaded box end portion of the second pipe, the method comprises the steps of: a) determining, by means of triangulation, a position of a centre line of the second pipe; b) prior to bringing the threaded end portion of the first pipe in contact with the threaded end portion of the second pipe, determining, by means of triangulation, a position of a central end portion of the first pipe being closest to the second pipe; c) calculating direction and amount of any horizontal deviation (dH) between the centre line of the second pipe and the central end portion of the first pipe facing the second pipe; d) outputting a first guiding signal indicative of direction and amount of the horizontal deviation calculated in step c), e) moving the first pipe according to the first guiding signal; and then f) moving the threaded pin end portion of the first pipe to abut against the threaded box end portion of the second pipe; characterised in that thereafter the method further comprises g) determining a first pipe direction vector and a second pipe direction vector; h) calculating direction and amount of any inclination (dC) of the first pipe direction vector with respect to the second pipe direction vector; i) outputting a second guiding signal indicative of direction and amount of inclination (dC) calculated in step h); j) adjusting the inclination of the first pipe according to the second guiding signal; and k) rotating the first pipe so that the threads of the first pipe engage with the threads of the second pipe. a) determining, by means of triangulation, a position of a centre line of the second pipe; b) prior to bringing the threaded end portion of the first pipe in contact with the threaded end portion of the second pipe, determining, by means of triangulation, a position of a central end portion of the first pipe being closest to the second pipe; c) calculating direction and amount of any horizontal deviation (dH) between the centre line of the second pipe and the central end portion of the first pipe facing the second pipe; d) outputting a first guiding signal indicative of direction and amount of the horizontal deviation calculated in step c), e) moving the first pipe according to the first guiding signal; and then f) moving the threaded pin end portion of the first pipe to abut against the threaded box end portion of the second pipe; g) determining a first pipe direction vector and a second pipe direction vector; h) calculating direction and amount of any inclination (dC) of the first pipe direction vector with respect to the second pipe direction vector; i) outputting a second guiding signal indicative of direction and amount of inclination (dC) calculated in step h); j) adjusting the inclination of the first pipe according to the second guiding signal; and k) rotating the first pipe so that the threads of the first pipe engage with the threads of the second pipe.
An indoor light source that emits light having an emission spectrum including a first peak in a wavelength region of 440 to 460 nm, a second peak in a wavelength region of 540 to 560 nm, and a third peak in a wavelength region of 610 to 630 nm, wherein when the highest one of intensities at the first peak, the second peak, and the third peak is 1 in terms of relative intensity, the emission spectrum includes a lowest light intensity of 0.7 or higher in terms of relative intensity in a wavelength region of λ1 to λ2 in nm, and a lowest light intensity of 0.8 or higher in terms of relative intensity in a wavelength region of λ2 to λ3 in nm, and where λ1 is a peak wavelength at the first peak in nm, λ2 is a peak wavelength at the second peak in nm, and λ3 is a peak wavelength at the third peak in nm, the indoor light source comprising a light-emitting device configured to emit ultraviolet light, a wavelength conversion member comprising an inorganic material containing a phosphor dispersed therein, the phosphor being to be excited by light emitted from the light-emitting device to show a fluorescence, the phosphor including a red phosphor that shows a red fluorescence, a green phosphor that shows a green fluorescence, a first blue phosphor that shows a blue fluorescence with a first fluorescence spectrum, and a second blue phosphor that shows a blue fluorescence with a second fluorescence spectrum, characterized in that the emission spectrum includes two light intensities of 0.99 or higher in terms of relative intensity at the first to third peaks excluding a peak having the highest light intensity among the first to third peaks, and includes the light intensity of 0.6 or higher in terms of relative intensity at 405 nm, a difference between a peak wavelength λB1 in nm of the first fluorescence spectrum and a peak wavelength λB2 in nm of the second fluorescence spectrum is 5 nm or less, and a difference between a half width HWB1 in nm of the first fluorescence spectrum and a half width HWB2 in nm of the second fluorescence spectrum is 10 nm or more.
A method for operating a hearing device that is openly coupled to an ear of a hearing device user, the method comprising the steps of: - determining a momentary acoustic situation by processing an input signal of the hearing device, - selecting a hearing program out of at least two hearing programs in dependence on the determined momentary acoustic situation, at least one of the at least two hearing programs being suitable for calm acoustic situations, and at least another one of the at least two hearing programs being suitable for noisy acoustic situations, - applying a gain only above a predefined frequency limit to the input signal of the hearing device if one of the at least one hearing program for calm acoustic situations is selected, - reducing noise in the input signal only in a frequency range within audible frequencies if one of the at least one hearing program for noisy acoustic situations is selected, - providing a control element for the hearing device user, the control element being suitable to adjust at least one parameter of the selected hearing program, - adjusting the gain in accordance with activating the control element if one of the at least one hearing program for calm acoustic situations is selected, and - adjusting the frequency range in accordance with activating the control element if one of the at least one hearing program for noisy acoustic situations is selected. - determining a momentary acoustic situation by processing an input signal of the hearing device, - selecting a hearing program out of at least two hearing programs in dependence on the determined momentary acoustic situation, at least one of the at least two hearing programs being suitable for calm acoustic situations, and at least another one of the at least two hearing programs being suitable for noisy acoustic situations, - applying a gain only above a predefined frequency limit to the input signal of the hearing device if one of the at least one hearing program for calm acoustic situations is selected, - reducing noise in the input signal only in a frequency range within audible frequencies if one of the at least one hearing program for noisy acoustic situations is selected, - providing a control element for the hearing device user, the control element being suitable to adjust at least one parameter of the selected hearing program, - adjusting the gain in accordance with activating the control element if one of the at least one hearing program for calm acoustic situations is selected, and - adjusting the frequency range in accordance with activating the control element if one of the at least one hearing program for noisy acoustic situations is selected.
Energy supply for a field device that can be operated with a nominal voltage, comprising a first energy supply and an energy store which can be charged by the first energy supply via a charging circuit, characterized in that the first energy supply has a variable output voltage for the field device, the charging circuit is arranged between the first energy supply and the energy store, the charging circuit, in a first state in which the output voltage is above a predetermined value, is switched so that the field device is being operated via the first energy supply and the energy store is being charged, and the charging circuit, in a second state in which the output voltage is below the predetermined value, is switched so that the field device is being supplied via the first energy supply and the energy store.
A method for performing wireless communication by a first device, the method comprising: determining a selection window for selecting a sidelink, SL, resource within an active time related to SL discontinuous reception, DRX; determining a sensing window related to the selection window; performing sensing within the sensing window; selecting at least one candidate resource within the selection window based on the sensing; characterised by extending the selection window, based on that a number of the at least one candidate resource is less than or equal to a first threshold, wherein an interval of the extended selection window includes an inactive time related to the SL DRX. determining a selection window for selecting a sidelink, SL, resource within an active time related to SL discontinuous reception, DRX; determining a sensing window related to the selection window; performing sensing within the sensing window; selecting at least one candidate resource within the selection window based on the sensing; characterised by extending the selection window, based on that a number of the at least one candidate resource is less than or equal to a first threshold, wherein an interval of the extended selection window includes an inactive time related to the SL DRX.
A clutch-type drive, comprising: a drive unit having a rotatable driving shaft; a gear module being internally provided with at least one reduction gear set and being mounted on the rotatable driving shaft of the drive unit; the gear module having an output shaft for outputting a rotating force; and a first steering gear being mounted on the output shaft; a shaft support being fitted around the first steering gear; a pedal shaft being transversely and rotatably extended through the shaft support; a shaft sleeve being correspondingly fitted around the pedal shaft, and having an inner end extended into the shaft support; and a second steering gear being mounted on the inner end of the shaft sleeve to be correspondingly driven by the first steering gear to rotate; a transmission sprocket assembly including a plurality of adjacent sprockets, which are correspondingly fitted around the shaft sleeve; characterised in that a first-one-way bearing is correspondingly mounted on the transmission sprocket assembly and connected to the shaft sleeve; and a second one-way bearing is correspondingly mounted on the transmission sprocket assembly and connected to the pedal shaft. a drive unit having a rotatable driving shaft; a gear module being internally provided with at least one reduction gear set and being mounted on the rotatable driving shaft of the drive unit; the gear module having an output shaft for outputting a rotating force; and a first steering gear being mounted on the output shaft; a shaft support being fitted around the first steering gear; a pedal shaft being transversely and rotatably extended through the shaft support; a shaft sleeve being correspondingly fitted around the pedal shaft, and having an inner end extended into the shaft support; and a second steering gear being mounted on the inner end of the shaft sleeve to be correspondingly driven by the first steering gear to rotate; a transmission sprocket assembly including a plurality of adjacent sprockets, which are correspondingly fitted around the shaft sleeve; characterised in that a first-one-way bearing is correspondingly mounted on the transmission sprocket assembly and connected to the shaft sleeve; and a second one-way bearing is correspondingly mounted on the transmission sprocket assembly and connected to the pedal shaft.
A vulcanizing system in which a plurality of vulcanizers (10; 10a-10h) are classified into groups (Gr-1 - Gr-n), boilers (30; 30-1 - 30-n) corresponding to the number of the groups are provided, and each of the boilers supplying steam is allocated to each of the groups, wherein a temperature booster and a pressure booster are provided on a steam supply path (40; 40-1 - 40-n; 41; 42) connecting the vulcanizer that belongs to each of the groups and the boiler allocated to the group.
An elevator system comprising: a hoistway; an elevator car and a counterweight arranged to move within the hoistway; a first counterweight guide rail and a second counterweight guide rail arranged to guide the counterweight within the hoistway; a guide rail bracket (32; 132) which connects the first and second counterweight guide rails together; an elevator machine arranged to drive a tension member, which couples the elevator car and counterweight together, to move the elevator car within the hoistway; and a friction reducing element (36; 136) arranged on the guide rail bracket (32; 132) such that if the tension member moves towards the guide rail bracket (32; 132), the tension member contacts the friction reducing element (36, 136), characterized in that, the elevator system comprises at least one elevator car guide rail, wherein the elevator car guide rail is supported by the guide rail bracket (32, 132). a hoistway; an elevator car and a counterweight arranged to move within the hoistway; a first counterweight guide rail and a second counterweight guide rail arranged to guide the counterweight within the hoistway; a guide rail bracket (32; 132) which connects the first and second counterweight guide rails together; an elevator machine arranged to drive a tension member, which couples the elevator car and counterweight together, to move the elevator car within the hoistway; and a friction reducing element (36; 136) arranged on the guide rail bracket (32; 132) such that if the tension member moves towards the guide rail bracket (32; 132), the tension member contacts the friction reducing element (36, 136), characterized in that, the elevator system comprises at least one elevator car guide rail, wherein the elevator car guide rail is supported by the guide rail bracket (32, 132).