mhurhangee/ep-ind-claims huggingface dataset:
Fitting for a pull-out cupboard, - comprising a fixed element to be rigidly connected to a body of the pull-out cupboard and - a pull-out element supported at the fixed element, - wherein the pull-out element is movable between a pushed-in position and a pulled-out position with regard to the fixed element, - wherein the pull-out element is guided in a pull-out direction at the fixed element by rollers (11, 18, 21, 23) rotating about horizontally oriented axes (12, 17, 20, 24) arranged at distances and engaging rails (7, 10) running in parallel to each other, - wherein the rollers (18, 21, 23) which are rotating about at least two of the axes (17, 20, 25) arranged at distances are mounted to the pull-out element, - wherein the pull-out element, in the pull-out direction, is shorter than the fixed element by at least a fifth, characterised in - that the rollers (11, 18, 21, 23) for guiding the pull-out element at the fixed element are rotating about at least three axes (12, 17, 20, 24) and - that the pull-out element, in the pushed-in position but not in the pulled-out position, is supported at the fixed element by the rollers which are rotating about one axis of the at least three axes (12, 17, 20, 24) and mounted to the pull-out element. - comprising a fixed element to be rigidly connected to a body of the pull-out cupboard and - a pull-out element supported at the fixed element, - wherein the pull-out element is movable between a pushed-in position and a pulled-out position with regard to the fixed element, - wherein the pull-out element is guided in a pull-out direction at the fixed element by rollers (11, 18, 21, 23) rotating about horizontally oriented axes (12, 17, 20, 24) arranged at distances and engaging rails (7, 10) running in parallel to each other, - wherein the rollers (18, 21, 23) which are rotating about at least two of the axes (17, 20, 25) arranged at distances are mounted to the pull-out element, - wherein the pull-out element, in the pull-out direction, is shorter than the fixed element by at least a fifth, - that the rollers (11, 18, 21, 23) for guiding the pull-out element at the fixed element are rotating about at least three axes (12, 17, 20, 24) and - that the pull-out element, in the pushed-in position but not in the pulled-out position, is supported at the fixed element by the rollers which are rotating about one axis of the at least three axes (12, 17, 20, 24) and mounted to the pull-out element.
A plug assembly with a variable cross-sectional area in a plane perpendicular to the plane in which the assembly is deployed during the plugging of underground conduits, said assembly comprising: a plug having a plug body with a first cross-sectional area corresponding to the minimum cross-sectional area of the assembly; at least one compressible plug portion that is resiliently biased to form a second cross-sectional area corresponding to the maximum cross-sectional area of the assembly; and a plug deployment heater (15, 16) releasably engageable within the plug; and characterised by eutectic alloy retaining means that retain eutectic alloy shot in-line with the plug during deployment of the assembly within an underground conduit so as to enable the minimum cross-sectional area of the assembly to be achieved, wherein the alloy retaining means comprise a dump bailer located on the same axis to and in-line with the plug, said dump bailer having release means that can be operated remotely to discharge eutectic alloy shot into the area adjacent to the plug. a plug having a plug body with a first cross-sectional area corresponding to the minimum cross-sectional area of the assembly; at least one compressible plug portion that is resiliently biased to form a second cross-sectional area corresponding to the maximum cross-sectional area of the assembly; and a plug deployment heater (15, 16) releasably engageable within the plug; and characterised by eutectic alloy retaining means that retain eutectic alloy shot in-line with the plug during deployment of the assembly within an underground conduit so as to enable the minimum cross-sectional area of the assembly to be achieved, wherein the alloy retaining means comprise a dump bailer located on the same axis to and in-line with the plug, said dump bailer having release means that can be operated remotely to discharge eutectic alloy shot into the area adjacent to the plug.
A color correction table creation method for creating a color correction table for correcting a device-dependent value (b' i) used as printing data to be input to a printing apparatus, the color correction table creation method comprising: an output value acquisition step of acquiring, as an output value (Lab i), a colorimetric result for a printed matter created by inputting a specific device-dependent value (b i) to the printing apparatus; an input value acquisition step of acquiring, as an input value (b' i) for the color correction table, a device-dependent value that corresponds to the output value (Lab i) as a device-independent value in an A2B table derived from another printed matter created by a reference printing apparatus; a correction value acquisition step of acquiring the specific device-dependent value as a correction value (b i) corresponding to the input value (b' i); and a creation step of creating the color correction table utilizing a correspondence relationship between the input value (b' i) and the correction value (b i). an output value acquisition step of acquiring, as an output value (Lab i), a colorimetric result for a printed matter created by inputting a specific device-dependent value (b i) to the printing apparatus; an input value acquisition step of acquiring, as an input value (b' i) for the color correction table, a device-dependent value that corresponds to the output value (Lab i) as a device-independent value in an A2B table derived from another printed matter created by a reference printing apparatus; a correction value acquisition step of acquiring the specific device-dependent value as a correction value (b i) corresponding to the input value (b' i); and a creation step of creating the color correction table utilizing a correspondence relationship between the input value (b' i) and the correction value (b i).
Drive system for a movable roof part of a motor vehicle roof module, with at least one support bar which is fastened laterally to the roof part, with at least one control carriage which is movable linearly via a drive means in a guide track running laterally along the roof part, with at least one deployment mechanism which pivots, raises and lowers the support bar and therefore the roof part, and with a stationary roof region arranged behind the movable roof part in the longitudinal direction of the vehicle, wherein the movable roof part is pivotable from a closed position into a ventilation position and is lowerable into an open position and is movable rearward under the roof region, wherein the support bar at the front end region thereof is mounted so as to be pivotable about a pivot joint on a compensating element which, depending on the movement position of the roof part, is shiftable relative to a front guide arrangement of the deployment mechanism into different positions, wherein the compensating element is designed as a compensating lever which is mounted on the guide arrangement so as to be pivotable about a pivot axis, and which comprises a control section and a compensating extension, which protrude on opposite sides relative to the pivot axis, wherein the compensating extension bears the pivot joint of the support bar and the control section is coupled mechanically to the control carriage, that the control carriage and the front guide arrangement are movable in a common guide track, that the front guide arrangement is assigned a latching arrangement (18, 19) which, depending on a movement position of the roof part and of the support bar relative to the guide track, blocks the guide arrangement or releases same for longitudinal shifting, characterized in that the latching arrangement has a latching lever which, in the locking position thereof, is supported in a form-fitting manner in a latching receptacle of the guide track, and in that the control carriage has a driver arrangement which, depending on the movement position of the roof part and of the support bar, lifts the latching lever out of the latching receptacle and carries along the latching lever, and in that the latching lever is articulated to the front guide arrangement so as to be pivotable about the pivot axis of the compensating lever.
A compression hosiery garment, comprising: a knit fabric comprising a first yarn and a second yarn knit in an alternating knit construction in which adjacent courses are knitted together with a knitted loop stitch at the adjacent loops on adjacent courses, the alternating knit construction comprising at least one course of the second yarn for each course of the first yarn, the first yarn comprising a covered yarn having an elastic core, the second yarn comprising an inelastic yarn, characterized in that the alternating knit construction comprises an inverse course shift in which the course of the first yarn is knit looser relative to the course of the second yarn, creating a course offset where the first yarn is knit with a first course height that is greater than a second course height of the second yarn, and wherein the course offset between the first course height and the second course height is between 0.2 millimeters and 0.6 millimeters. a knit fabric comprising a first yarn and a second yarn knit in an alternating knit construction in which adjacent courses are knitted together with a knitted loop stitch at the adjacent loops on adjacent courses, the alternating knit construction comprising at least one course of the second yarn for each course of the first yarn, the first yarn comprising a covered yarn having an elastic core, the second yarn comprising an inelastic yarn, characterized in that the alternating knit construction comprises an inverse course shift in which the course of the first yarn is knit looser relative to the course of the second yarn, creating a course offset where the first yarn is knit with a first course height that is greater than a second course height of the second yarn, and wherein the course offset between the first course height and the second course height is between 0.2 millimeters and 0.6 millimeters.
Handpiece for a device for pulsed light treatment, comprising: - a base characterized by comprising: - a flash lamp cartridge provided with fluidic and electric connectors, - an optical unit to be secured to the base, the optical unit defining a recess for receiving the cartridge, the optical unit being arranged so as to press, at the end of a pivoting movement, the fluidic connector of the cartridge against a corresponding connector provided on the base, so as to establish a flow of cooling fluid between the cartridge and the base. - a base - a flash lamp cartridge provided with fluidic and electric connectors, - an optical unit to be secured to the base, the optical unit defining a recess for receiving the cartridge, the optical unit being arranged so as to press, at the end of a pivoting movement, the fluidic connector of the cartridge against a corresponding connector provided on the base, so as to establish a flow of cooling fluid between the cartridge and the base.
A process for making a lozenge product, said method comprising the steps of forming a powder blend comprising an amorphous carbohydrate polymer into the desired shape of said lozenge product and applying RF energy to said shape for a sufficient period of time to soften or melt said amorphous carbohydrate polymer to fuse said shape into said lozenge product; wherein said process comprises the steps of: (i) introducing said powder blend into a forming cavity within said die platen; (ii) compacting said powder blend by introducing at least one forming tool into said die platen with sufficient force such that the shape of the lozenge product is formed; (iii) applying said radio frequency energy to said shape, within said forming cavity to form said lozenge product; and (iv) removing said lozenge product from said forming cavity. (i) introducing said powder blend into a forming cavity within said die platen; (ii) compacting said powder blend by introducing at least one forming tool into said die platen with sufficient force such that the shape of the lozenge product is formed; (iii) applying said radio frequency energy to said shape, within said forming cavity to form said lozenge product; and (iv) removing said lozenge product from said forming cavity.
Support device for printing plates comprising a base layer defining an etched surface and rims surrounding said etched surface (11 a); said support being suitable to be used for the high vacuum deposit of an outer coating on said etched surface and being characterised in that it comprises: a support defining a main extension axis a substantially prismatic overall profile, an edging of said overall profile protruding in a direction substantially parallel to said main extension axis; attachments comprising slits suitable to contain at least a portion of opposite rims and having main directions of extension substantially parallel to said main extension axis; stops suitable to prevent a relative movement between said base layer and said attachments; and hooks comprising at least one seat integral with said attachments suitable to snap engage to said edging.
A thermal storage device comprising: a core comprising a heatable material (120, 310) rated to a first operating temperature to provide a defined heat output within a 24 hour period, the first operating temperature being a normal operating temperature of the core; at least one electrical heating element; a controller (502, 615) configured to be in communication with a remote operator and in response to signals from the remote operator to selectively activate the at least one electrical heating element to effect a heating of the heatable material (120, 310) to the first operating temperature, and to selectively activate the at least one electrical heating element to effect a heating of the heatable material to a second operating temperature, the second operating temperature being greater than the first operating temperature and wherein the at least one electrical element is rated to provide sufficient energy to the heatable material within a charging window to achieve a heating of the heatable material to the second operating temperature, the device being characterized in that the controller (502, 615) is configured to activate the at least one electrical element in at least one time window defined within the charging window, the duration of the at least one time window being less than the charging window, and to dynamically modify the at least one time window during a charge period, the modification of the at least one time window providing a backcharging of the device. a core comprising a heatable material (120, 310) rated to a first operating temperature to provide a defined heat output within a 24 hour period, the first operating temperature being a normal operating temperature of the core; at least one electrical heating element; a controller (502, 615) configured to be in communication with a remote operator and in response to signals from the remote operator to selectively activate the at least one electrical heating element to effect a heating of the heatable material (120, 310) to the first operating temperature, and to selectively activate the at least one electrical heating element to effect a heating of the heatable material to a second operating temperature, the second operating temperature being greater than the first operating temperature and wherein the at least one electrical element is rated to provide sufficient energy to the heatable material within a charging window to achieve a heating of the heatable material to the second operating temperature, the device being characterized in that the controller (502, 615) is configured to activate the at least one electrical element in at least one time window defined within the charging window, the duration of the at least one time window being less than the charging window, and to dynamically modify the at least one time window during a charge period, the modification of the at least one time window providing a backcharging of the device.
A method of operating a mechanically operated brake having an electric motor for operating an adjuster mechanism including the steps of:- a) providing a brake rotor and friction material (20B, 22B) for selective engagement with the brake rotor, b) providing a target running clearance between the brake rotor and the friction material (20B, 22B), c) applying the brake by forcing the friction material (20B, 22B) into engagement with the brake rotor, d) determining that the friction material (20B, 22B) is set in a compressed condition, e) releasing the brake, f) operating the electric motor to operate the adjuster mechanism to adjust an instantaneous running clearance towards the target running clearance, g) then applying the brake. a) providing a brake rotor and friction material (20B, 22B) for selective engagement with the brake rotor, b) providing a target running clearance between the brake rotor and the friction material (20B, 22B), c) applying the brake by forcing the friction material (20B, 22B) into engagement with the brake rotor, d) determining that the friction material (20B, 22B) is set in a compressed condition, e) releasing the brake, f) operating the electric motor to operate the adjuster mechanism to adjust an instantaneous running clearance towards the target running clearance, g) then applying the brake.
Method for in vitro diagnosing prostate cancer in a human individual comprising: - determining the expression of TDRD1 in an urinary sample of said human individual; and - establishing up regulation of expression of TDRD1 as compared to expression of urinary sample from an individual without prostate cancer; thereby providing said diagnosis of prostate cancer. - determining the expression of TDRD1 in an urinary sample of said human individual; and - establishing up regulation of expression of TDRD1 as compared to expression of urinary sample from an individual without prostate cancer;
A fire-resistant optical fibre cable comprising: - a core comprising a central strength member, and a plurality of buffer tubes arranged around the central strength member, each buffer tube containing a plurality of optical fibres; - a layer arranged around the core; - a glass yarn layer surrounding and in direct contact with the layer; - a metal armour surrounding the glass yarn layer; and - a sheath made of an LSOH flame-retardant material surrounding and in direct contact with the metal armour, characterized in that the layer arranged around the core is a mica layer; the sheath is a multi-layered sheath, and in that the multi-layered sheath comprises a first layer, a second layer surrounding and in contact with the first layer, and a third layer in a radial inner position with respect to the first layer and in direct contact thereto, the first, second and third layers being made of an LSOH flame-retardant material, the LSOH material of the first layer having a limiting oxygen index, LOI, higher than the LOI of the LSOH material of the second layer and of third layer, and the second layer is the cable outermost layer. - a core comprising a central strength member, and a plurality of buffer tubes arranged around the central strength member, each buffer tube containing a plurality of optical fibres; - a layer arranged around the core; - a glass yarn layer surrounding and in direct contact with the layer; - a metal armour surrounding the glass yarn layer; and - a sheath made of an LSOH flame-retardant material surrounding and in direct contact with the metal armour,
A V-ribbed belt (1, 21, 31) suitable to be wound around plural pulleys (2, 3) and used, comprising: an extension layer that forms a back surface of the V-ribbed belt, a compression layer provided on one surface of the extension layer and having plural ribs extending parallel to each other along a longitudinal direction of the V-ribbed belt, and a load carrying cord embedded between the extension layer and the compression layer along the longitudinal direction of the V-ribbed belt, wherein a width (e) of the rib is from 2.0 to 3.0 mm mm, and a distance (i) from the bottom portion of the rib to the tip portion of the rib is from 1.1 to 1.8 mm, characterized in that a distance (j) from an outer peripheral portion of the load carrying cord on the rib side to a tip portion of the rib is from 2.0 to 2.6 mm, and a distance (h) from the outer peripheral portion of the load carrying cord on the rib side to a bottom portion of the rib is from 0.3 to 1.2 mm. an extension layer that forms a back surface of the V-ribbed belt, a compression layer provided on one surface of the extension layer and having plural ribs extending parallel to each other along a longitudinal direction of the V-ribbed belt, and a load carrying cord embedded between the extension layer and the compression layer along the longitudinal direction of the V-ribbed belt, wherein a width (e) of the rib is from 2.0 to 3.0 mm mm, and a distance (i) from the bottom portion of the rib to the tip portion of the rib is from 1.1 to 1.8 mm, characterized in that a distance (j) from an outer peripheral portion of the load carrying cord on the rib side to a tip portion of the rib is from 2.0 to 2.6 mm, and a distance (h) from the outer peripheral portion of the load carrying cord on the rib side to a bottom portion of the rib is from 0.3 to 1.2 mm.
A light emitting diode drive device comprising: a drive circuit section that applies a direct-current voltage to a light source including a plurality of light emitting diodes connected in series to allow the light source to light up; a voltage detection circuit section that detects a voltage across the light source; and a malfunction determination circuit section that determines that the light emitting diodes are short-circuited respectively when the voltage detection circuit section detects a voltage drop and a potential between the voltage before being dropped and the voltage after being dropped is equal to or more than a predetermined threshold value that is set with a forward voltage at one of the light emitting diodes used as a reference. a drive circuit section that applies a direct-current voltage to a light source including a plurality of light emitting diodes connected in series to allow the light source to light up; a voltage detection circuit section that detects a voltage across the light source; and a malfunction determination circuit section that determines that the light emitting diodes are short-circuited respectively when the voltage detection circuit section detects a voltage drop and a potential between the voltage before being dropped and the voltage after being dropped is equal to or more than a predetermined threshold value that is set with a forward voltage at one of the light emitting diodes used as a reference.