mhurhangee/ep-ind-claims huggingface dataset:
Process of manufacturing of a compressible pillar for the preparation of a vacuum insulated glazing unit, wherein the compressible pillar has a longitudinal extent in the pre-compressed state and comprising a deformable part having an open structure, which open structure will at least partially collapse when the pillar is subject to a compression force acting in the longitudinal direction of the pillar, the compression force being of at least one value selected within the range of 60 N to 320 N such as a value of the compression force being selected from the range of 60 N to 140 N, from the range of 140 N to 230 N, or from the range of 230 N to 320 N, characterized in that the pillar will exhibit a partly irreversible deformation causing a reduction (ΔL, red) in the longitudinal extent of the pillar when the pillar is subjected to said compression force, so that when said compression force is fully released the pillar will exhibit an expansion (ΔL, exp) in the longitudinal direction of the pillar which is less that said reduction (ΔL, red) in the longitudinal extent of the pillar and wherein the process comprises applying an additive manufacturing technology to a metal powder bed by means of selective employment of laser light to fuse particles of the metal powder.
A freight container, comprising a container body and corner fittings positioned at each corner of the container body, the container body comprising a bottom portion, a top portion, two side portions and two end portions (40, 50), wherein: at least one end portion is provided with a locking device, and the positions of the corner fittings and distance therebetween accord with ISO standard; the two end portions (40, 50) are a front end and a rear end; the front end is provided with a corrugated plate which is protruded beyond outer edges of the corner fittings along a longitudinal direction of the container body characterized in that the locking device is protruded beyond outer edges of the corner fittings along the longitudinal direction of the container body; and the locking device comprises locking bars mounted asymmetrically on two doors of the rear end. at least one end portion is provided with a locking device, and the positions of the corner fittings and distance therebetween accord with ISO standard; the two end portions (40, 50) are a front end and a rear end; the front end is provided with a corrugated plate which is protruded beyond outer edges of the corner fittings along a longitudinal direction of the container body characterized in that the locking device is protruded beyond outer edges of the corner fittings along the longitudinal direction of the container body; and the locking device comprises locking bars mounted asymmetrically on two doors of the rear end.
A method of coupling a lens port to a housing for an underwater camera comprising the steps of providing an inwardly castellated ring, a co-operating outwardly castellated ring, the rings (4, 10) comprising part of or being positioned one on the housing and the other on the lens port, characterised in that a mechanism is provided external of the housing to rotate the inwardly castellated ring relative to the housing, passing the outwardly castellated ring through the inwardly castellated ring, and operating the mechanism to rotate the inwardly castellated ring to hold the outward castellations against the inward castellations to thereby hold the lens port to the housing.
A method of manufacturing a cooling element, in particular a micro cooling element, comprising: - providing at least one first metal layer and at least one second metal layer, - oxidizing the at least one first metal layer and/or the at least one second metal layer, - structuring the at least one first metal layer and/or the at least one second metal layer to form at least one recess (21, 22), - connecting the at least one first metal layer and the at least one second metal layer to form the cooling element, in particular by bonding, wherein, in a connected state, at least a portion of a cooling channel is formed in the cooling element by the recess (21, 22) located in the at least one first metal layer and/or in the at least one second metal layer and wherein, prior to connecting, an inner side of the recess (21, 22) is provided, at least in sections, in a state released from any oxidized surface, and preferably is provided to be completely released from any oxidized surface, characterized in that oxidizing is performed prior to structuring. - providing at least one first metal layer and at least one second metal layer, - oxidizing the at least one first metal layer and/or the at least one second metal layer, - structuring the at least one first metal layer and/or the at least one second metal layer to form at least one recess (21, 22), - connecting the at least one first metal layer and the at least one second metal layer to form the cooling element, in particular by bonding, wherein, in a connected state, at least a portion of a cooling channel is formed in the cooling element by the recess (21, 22) located in the at least one first metal layer and/or in the at least one second metal layer and wherein, prior to connecting, an inner side of the recess (21, 22) is provided, at least in sections, in a state released from any oxidized surface, and preferably is provided to be completely released from any oxidized surface, characterized in that oxidizing is performed prior to structuring.
Heat exchanger for gases, in particular for the exhaust gases of an engine, comprising a core arranged inside a frame, said core comprising an array of tubes designed for the circulation of the gases with heat exchange with a coolant, said tubes being fixed by their ends between two support plates (3a, 3b) coupled to each end of the frame, said core further comprising two inlet and outlet ducts for the coolant arranged in the vicinity of one another and on the same side of the frame, the heat exchanger comprising bypass means (6, 7a-7d) arranged inside the frame, capable of directing the flow of coolant in the opposing direction relative to the circulation of the flow of gas in at least one part of said frame, the bypass means being deflecting means (6, 7a-7d) and in that the deflecting means comprising a longitudinal baffle arranged at a suitable distance from the internal wall of the frame to permit the passage of the flow of coolant to the gas inlet end, characterized in that the deflecting means comprise a plurality of transverse baffles (7a-7d) arranged alternately along the longitudinal baffle and provided with passage cut-outs (9, 10) making it possible to direct uniformly the flow of coolant from the gas inlet end to the gas outlet end along a substantially helicoidal trajectory, in which the distance between the longitudinal baffle and the internal wall of the frame in which one of the ducts for the coolant is located, is approximately one or two rows of gas tubes, making if possible for a coolant to be rapidly conveyed to the gas inlet.
A control apparatus for regenerative medium voltage inverter including a phase detecting unit providing phase angle information of an input power source, wherein the control apparatus further includes: a converter unit configured to include a plurality of power devices, and convert a three-phase power to a DC voltage; a gate signal generating unit configured to output a PWM signal which is a switching signal of the plurality of power devices; a current controller configured to generate a voltage command from a current command and a measured current and apply the voltage command to the gate signal generating unit; and a generating unit configured to generate a voltage compensating a power difference between an input and an output of the converter unit, characterised in that the generating unit is further configured to provide the voltage to the current controller. a converter unit configured to include a plurality of power devices, and convert a three-phase power to a DC voltage; a gate signal generating unit configured to output a PWM signal which is a switching signal of the plurality of power devices; a current controller configured to generate a voltage command from a current command and a measured current and apply the voltage command to the gate signal generating unit; and a generating unit configured to generate a voltage compensating a power difference between an input and an output of the converter unit, characterised in that the generating unit is further configured to provide the voltage to the current controller.
Locking cylinder having a cylinder housing and a cylinder core mounted in a rotatable manner in the cylinder housing, wherein the cylinder core has a keyway for inserting a key in a key insertion direction, wherein the locking cylinder also has a plurality of tumbler elements (24, 28, 32, 34, 26, 42, 48, 50), which allow a rotary movement of the cylinder core in the cylinder housing in a respective unlocked position and prevent same in a respective locked position, wherein one of the plurality of tumbler elements (24, 28, 32, 34, 26, 42, 48, 50) is an axial tumbler element, which, with a key inserted fully into the keyway, has been moved relative to its locked position into its unlocked position, substantially parallel to the key insertion direction, wherein the locking cylinder also has a locking bar having two bar elements (48, 50) that are movable relative to one another, and wherein one of the bar elements (48, 50) of the locking bar forms the axial tumbler element, wherein the locking cylinder also has a movement transmission element that is movable transversely to the key insertion direction, wherein the axial tumbler element is under sloping-flank control by the movement transmission element, characterized in that the movement transmission element cooperates with the key and with the axial tumbler element in order to move the axial tumbler element substantially parallel to the key insertion direction.
Use of a pool of unique adaptors for analyzing nucleic acids in a sample, each adaptor comprising: a double stranded portion at a proximal end and two single stranded portions at a distal end, wherein the double stranded portion comprises a double-stranded barcode of at least two base pairs specific to the adaptor, and wherein the single-stranded portion comprises: i) a pre-defined single-stranded barcode of at least two nucleotides specific to the sample; and ii) a random single-stranded barcode of at least two nucleotides specific to the adaptor on the same strand, wherein I) the double-stranded barcode comprises 2-20 base pairs; II) the pre-defined single-stranded barcode comprises 4-20 nucleotides; or III) the random single-stranded barcode comprises 4-20 nucleotides; and wherein the combination of the random single-stranded barcode and the endogenous barcode provides a unique identifier for each template nucleic acid, wherein the endogenous barcode is one or more sequence(s) of a genomic DNA fragment. a double stranded portion at a proximal end and two single stranded portions at a distal end, wherein the double stranded portion comprises a double-stranded barcode of at least two base pairs specific to the adaptor, and wherein the single-stranded portion comprises: i) a pre-defined single-stranded barcode of at least two nucleotides specific to the sample; and ii) a random single-stranded barcode of at least two nucleotides specific to the adaptor on the same strand, wherein I) the double-stranded barcode comprises 2-20 base pairs; II) the pre-defined single-stranded barcode comprises 4-20 nucleotides; or III) the random single-stranded barcode comprises 4-20 nucleotides; and i) a pre-defined single-stranded barcode of at least two nucleotides specific to the sample; and ii) a random single-stranded barcode of at least two nucleotides specific to the adaptor on the same strand, wherein I) the double-stranded barcode comprises 2-20 base pairs; II) the pre-defined single-stranded barcode comprises 4-20 nucleotides; or III) the random single-stranded barcode comprises 4-20 nucleotides; and I) the double-stranded barcode comprises 2-20 base pairs; II) the pre-defined single-stranded barcode comprises 4-20 nucleotides; or III) the random single-stranded barcode comprises 4-20 nucleotides; and wherein the combination of the random single-stranded barcode and the endogenous barcode provides a unique identifier for each template nucleic acid, wherein the endogenous barcode is one or more sequence(s) of a genomic DNA fragment.
A photometric process measurement arrangement with a photometric immersion probe, the photometric immersion probe being electrically supplied with a probe supply voltage (Us) comprising: a photometer flashlight source configured for providing photometric light impulses with a continuous spectrum, an impulse energy capacitor configured for storing the electric impulse energy, an electronic flyback-converter configured for successively electrically charging the impulse energy capacitor with numerous charging voltage quantums (Uq), wherein the flyback-converter is provided with a converter switch between a converter supply voltage port and a transformer, a switching signal generator configured for driving the converter switch with a switching signal having a switching frequency (f), the switching signal generator comprising a standard duty cycle signal generator configured for driving the converter switch with a standard duty cycle value and comprising a boost duty cycle signal generator configured for alternatively driving the converter switch with a higher boost duty cycle value, when the boost duty cycle signal generator is activated, the switching signal generator being provided with a supply voltage comparator and a boost voltage memory memorizing a boost voltage value (Ub), the supply voltage comparator continuously comparing the probe supply voltage (Us) at the converter supply voltage port and the boost voltage value (Ub), the switching signal generator activating the boost duty cycle signal generator if the supply voltage comparator determines that the supply voltage (Us) is below the boost voltage value (Ub). a photometer flashlight source configured for providing photometric light impulses with a continuous spectrum, an impulse energy capacitor configured for storing the electric impulse energy, an electronic flyback-converter configured for successively electrically charging the impulse energy capacitor with numerous charging voltage quantums (Uq), wherein the flyback-converter is provided with a converter switch between a converter supply voltage port and a transformer, a switching signal generator configured for driving the converter switch with a switching signal having a switching frequency (f), the switching signal generator comprising a standard duty cycle signal generator configured for driving the converter switch with a standard duty cycle value and comprising a boost duty cycle signal generator configured for alternatively driving the converter switch with a higher boost duty cycle value, when the boost duty cycle signal generator is activated, the switching signal generator being provided with a supply voltage comparator and a boost voltage memory memorizing a boost voltage value (Ub), the supply voltage comparator continuously comparing the probe supply voltage (Us) at the converter supply voltage port and the boost voltage value (Ub), the switching signal generator activating the boost duty cycle signal generator if the supply voltage comparator determines that the supply voltage (Us) is below the boost voltage value (Ub).
Clevis, in particular for a turbomachine, comprising a body comprising means of attachment to a casing and at least one aperture for fitting a hinge pin, characterised in that said body is formed in one piece and comprises, about said at least one aperture, a honeycomb-type annular portion forming a vibration filter and having a compressive and/or flexural strain capacity greater than that of the rest of said body.
Process for manufacturing a structure for a high voltage device, the process being of the type which comprises the steps of: - realising a semiconductor substrate having a first conductivity type; - epitaxially growing on said semiconductor substrate an epitaxial layer having said first conductivity type; and - realising in said epitaxial layer at least one deep trench having a ratio between width and height being less than 3/20 in order to realise at least one respective column structure comprising said at least one deep trench in said epitaxial layer; wherein the process further comprises: - an epitaxial growing step within said at least one deep trench of a silicon layer of said at least one respective column structure, said silicon layer being doped and having a second conductivity type opposed to said first conductivity type and having a dopant charge which counterbalances a dopant charge being in said epitaxial layer outside said column structures and - a filling step of said trench by means of a filling dielectric layer in order to realise a dielectric filling portion of said at least one respective column structure, wherein said epitaxial growing step grows a silicon layer having a dopant concentration with a variable concentration profile having a maximum near an interface with said epitaxial layer. - realising a semiconductor substrate having a first conductivity type; - epitaxially growing on said semiconductor substrate an epitaxial layer having said first conductivity type; and - realising in said epitaxial layer at least one deep trench having a ratio between width and height being less than 3/20 in order to realise at least one respective column structure comprising said at least one deep trench in said epitaxial layer; - an epitaxial growing step within said at least one deep trench of a silicon layer of said at least one respective column structure, said silicon layer being doped and having a second conductivity type opposed to said first conductivity type and having a dopant charge which counterbalances a dopant charge being in said epitaxial layer outside said column structures and - a filling step of said trench by means of a filling dielectric layer in order to realise a dielectric filling portion of said at least one respective column structure, wherein
An electrosurgical system for treating tissue comprising: an electrosurgical probe comprising a shaft having a distal end and a proximal end, an active electrode disposed near the distal end; a high frequency power supply for delivery of high frequency voltage to said active electrode, the high frequency power supply coupled to the active electrode and a return electrode; a controller electrically connected to receive and process a signal from a current sensor, the current sensor operable to measure a current output associated with the power supply when a low voltage output is delivered to the active electrode or the return electrode; wherein the controller is programmed to prevent delivery of a therapeutic voltage output which is higher than said low voltage output until the current output received is within a range, said range having an upper limit set in relation to at least one measured value; and wherein the controller is programmed to modify the upper limit based on the at least one measured value. an electrosurgical probe comprising a shaft having a distal end and a proximal end, an active electrode disposed near the distal end; a high frequency power supply for delivery of high frequency voltage to said active electrode, the high frequency power supply coupled to the active electrode and a return electrode; a controller electrically connected to receive and process a signal from a current sensor, the current sensor operable to measure a current output associated with the power supply when a low voltage output is delivered to the active electrode or the return electrode; wherein the controller is programmed to prevent delivery of a therapeutic voltage output which is higher than said low voltage output until the current output received is within a range, said range having an upper limit set in relation to at least one measured value; and wherein the controller is programmed to modify the upper limit based on the at least one measured value.
A method for producing at least one portion (T a) of a layer of a three-dimensional component by irradiating at least one powder layer by means of at least one high-energy beam, in particular by means of at least one laser beam (3, 3a-c), comprising: irradiating the powder layer by means of the at least one high-energy beam in a processing field, characterized in that the at least one high-energy beam is moved in a continuous oscillating movement over the powder layer in a first direction in order to produce a line-shaped irradiation region, in which the powder layer is melted, wherein the line-shaped irradiation region is moved over the powder layer in a second direction that differs from the first to produce the portion (T a) of the layer of the three-dimensional component, and that the movements of the high-energy beam in the two directions (R1, R2) are matched to one another in such a way that each point within the line-shaped irradiation region is passed over at least two times, preferably at least three times, by the high-energy beam.
A compound ABX196 of formula: or one of its pharmaceutically acceptable salts, for use in a method for the treatment of bladder cancer, wherein said method does not comprise the administration of a further chemotherapeutic agent and/or an immunotherapeutic agent and/or an antigen.
A heat exchange apparatus that exchanges heat between a refrigerant and a section to be temperature-regulated, comprising: a compressor configured to compress the refrigerant and to cause the refrigerant to circulate in the heat exchange apparatus; a first heat exchanger configured to exchange heat between the refrigerant and outside air; a second heat exchanger configured to exchange heat between the refrigerant and air for air conditioning; an opening-adjusting valve configured to adjust a degree of opening of a path of the refrigerant between the first heat exchanger and the section to be temperature-regulated; an expansion valve that is disposed in a path of the refrigerant between the section to be temperature-regulated and the second heat exchanger, the expansion valve being configured to reduce a pressure of the refrigerant; and characterized in that it comprises a controller configured to control a degree of opening of the opening-adjusting valve, to increase the degree of opening of the opening-adjusting valve to thereby heat the section to be temperature-regulated, and to reduce the degree of opening of the opening-adjusting valve to thereby cool the section to be temperature-regulated. a compressor configured to compress the refrigerant and to cause the refrigerant to circulate in the heat exchange apparatus; a first heat exchanger configured to exchange heat between the refrigerant and outside air; a second heat exchanger configured to exchange heat between the refrigerant and air for air conditioning; an opening-adjusting valve configured to adjust a degree of opening of a path of the refrigerant between the first heat exchanger and the section to be temperature-regulated; an expansion valve that is disposed in a path of the refrigerant between the section to be temperature-regulated and the second heat exchanger, the expansion valve being configured to reduce a pressure of the refrigerant; and characterized in that it comprises a controller configured to control a degree of opening of the opening-adjusting valve, to increase the degree of opening of the opening-adjusting valve to thereby heat the section to be temperature-regulated, and to reduce the degree of opening of the opening-adjusting valve to thereby cool the section to be temperature-regulated.