mhurhangee/ep-ind-claims huggingface dataset:
Arrangement comprising a contactor and a blower for an air temperature and humidity control device: wherein the contactor comprises a plurality of contact modules, each contact module having a porous sidewall configured to define an internal space through which a hygroscopic material flows, wherein a first airstream passes over a first portion of the plurality of contact modules and a second airstream passes over a second portion of the plurality of contact modules; characterized in that the blower comprises two sources for generating first and second airstreams (A1, A2), the first airstream having generally cool, dry air and the second airstream having generally hot, humid air, or the first airsteam includes return air provided from an adjacent air conditioned facility and the second airstream includes outdoor, ambient air; wherein the two sources for generating first and second airstreams (A1, A2) are configured such that each of the first and second airstreams (A1, A2) passes over a distinct portion of the contactor; wherein the source of the first airstream is configured such that the first airstream passes over the sidewalls of a first portion of the plurality of contact modules, and the source of the second airstream is configured such that the second airstream passes over the sidewalls of a second portion of the plurality of contact modules. wherein the contactor comprises a plurality of contact modules, each contact module having a porous sidewall configured to define an internal space through which a hygroscopic material flows, wherein a first airstream passes over a first portion of the plurality of contact modules and a second airstream passes over a second portion of the plurality of contact modules; characterized in that the blower comprises two sources for generating first and second airstreams (A1, A2), the first airstream having generally cool, dry air and the second airstream having generally hot, humid air, or the first airsteam includes return air provided from an adjacent air conditioned facility and the second airstream includes outdoor, ambient air; wherein the two sources for generating first and second airstreams (A1, A2) are configured such that each of the first and second airstreams (A1, A2) passes over a distinct portion of the contactor; wherein the source of the first airstream is configured such that the first airstream passes over the sidewalls of a first portion of the plurality of contact modules, and the source of the second airstream is configured such that the second airstream passes over the sidewalls of a second portion of the plurality of contact modules.
Method for connection detection for an LED lighting system, wherein the LED as lighting means are controlled by at least an operating device (1, 1', 1 "..) depending on commands from a central control unit, characterized by the following steps: - supplying the operating devices (1, 1', 1"..) with voltage via the central control unit, - transmitting a clock signal on an internal bus via which the operating device (1, 1', 1"..) is controlled by means of commands from a central control unit, wherein the operating device sends back the clock signal on a back channel of the internal bus, - switching a further operating device (1 a) to the central control unit, - transmitting an error signal via the back channel of the internal bus through the switched operating device (1 a), wherein this error signal is not transmitted synchronously with the clock signal, - detection of the error signal by the central control unit - assigning addresses for the switched operating device through the central control unit. - supplying the operating devices (1, 1', 1"..) with voltage via the central control unit, - transmitting a clock signal on an internal bus via which the operating device (1, 1', 1"..) is controlled by means of commands from a central control unit, wherein the operating device sends back the clock signal on a back channel of the internal bus, - switching a further operating device (1 a) to the central control unit, - transmitting an error signal via the back channel of the internal bus through the switched operating device (1 a), wherein this error signal is not transmitted synchronously with the clock signal, - detection of the error signal by the central control unit - assigning addresses for the switched operating device through the central control unit.
An apparatus for removal of pin bones from fish meat, preferably from fillets of white fish, comprising a frame for supporting a drive device and a rotatably driven member driven by said drive device, wherein the rotatably driven member is provided with engagement means, and a counter pressure element for providing a clamping function between the counter pressure element and the rotatably driven element, whereby a pin bone is intended to be clamped between the respective engagement means 4 and the counter pressure element 5 for removal from the fillet upon rotation of the rotatably driven element, wherein the rotatably driven member has a curved convex engagement surface directed towards the fillet and adapted to match the shape of said fillet where the pin bones are located when said fillet is lying on a flat surface and wherein the rotatably driven member has the shape of a sphere or a ball.
Method for producing a radiation-emitting thin-film component comprising the following steps: - providing a substrate, - growing nanorods on the substrate, - epitaxially growing a semiconductor layer sequence comprising at least one active layer on the nanorods, - applying a carrier on the semiconductor layer sequence and - separating semiconductor layer sequence and carrier from the substrate by at least partially destroying the nanorods, wherein - the nanorods are grown in a manner free of an active zone, - the nanorods and the semiconductor layer sequence are grown from different materials, characterized in that the nanorods have upper parts at a side facing away from the substrate, and the upper parts form a closed layer. - providing a substrate, - growing nanorods on the substrate, - epitaxially growing a semiconductor layer sequence comprising at least one active layer on the nanorods, - applying a carrier on the semiconductor layer sequence and - separating semiconductor layer sequence and carrier from the substrate by at least partially destroying the nanorods, wherein - the nanorods are grown in a manner free of an active zone, - the nanorods and the semiconductor layer sequence are grown from different materials, characterized in that the nanorods have upper parts at a side facing away from the substrate, and the upper parts form a closed layer.
Cosmetic article (10A; 10B; 10C; 10D), intended to be applied on a body area of a user, comprising a decorative layer and an adhesive layer; the decorative layer having through openings and being formed of a textile material; the adhesive layer being formed by a biocompatible adhesive, the adhesive layer being applied on one side of the decorative layer and having through openings, at least some of the through openings of the adhesive layer respectively facing the through openings of the decorative layer; the decorative layer comprising a number of through openings per dm 2 between 500 and 10000, and having an opening rate between 20% and 95%. the decorative layer having through openings and being formed of a textile material; the adhesive layer being formed by a biocompatible adhesive, the adhesive layer being applied on one side of the decorative layer and having through openings, at least some of the through openings of the adhesive layer respectively facing the through openings of the decorative layer; the decorative layer comprising a number of through openings per dm 2 between 500 and 10000, and having an opening rate between 20% and 95%.
Device for measuring analytes in the blood and/or in the interstitial fluid, comprising: - at least one sensor configured to be in contact with blood and/or interstitial fluid; - a transducer engaged to said sensor to measure the concentration of said analyte in the blood and/or interstitial fluid; - electronic processing means associated with the transducer to generate a signal representative of concentration value of said analyte in the blood and/or interstitial fluid; and - transmitting means associated with the electronic processing means to send the signal to a receiver member remotely arranged with respect to said electronic processing means; wherein said sensor comprises an active electrode having a plurality of needles insertable into the skin to be in contact with the blood and/or interstitial fluid, and a reference electrode having a contact element with the user's skin; said electrodes (3, 5) defining a respective current passage electrical circuit; wherein said plurality of needles are arranged alongside each other along a circular path, each needle comprising a bioreceptor which is able to react with said analyte and having a diameter between 0,1 mm and 0,19 mm and a length between 500 μm and 3 mm; wherein said active electrode further comprises a carrier body of said needles having an annular configuration and defining a first contact surface with the user's skin and a second surface opposite to the first; said needles being mutually arranged alongside and protruding from said first surface; wherein the device further comprises a support element of said reference electrode having an adhesive surface engageable to the user's skin and an outer surface opposite to said adhesive surface; said carrier body being engaged to said support element with the respective second surface stably engaged to an annular zone of said adhesive surface surrounding the reference electrode. - at least one sensor configured to be in contact with blood and/or interstitial fluid; - a transducer engaged to said sensor to measure the concentration of said analyte in the blood and/or interstitial fluid; - electronic processing means associated with the transducer to generate a signal representative of concentration value of said analyte in the blood and/or interstitial fluid; and - transmitting means associated with the electronic processing means to send the signal to a receiver member remotely arranged with respect to said electronic processing means;
A lighting apparatus for an automobile, comprising: a first light emitting, a first phosphor disposed in such a position that light (L B1) emitted by the first light emitting element is incident on the first phosphor, the first phosphor being excited by the light, and a color filter disposed in such a position that first light (L G) includes the light (L B1) emitted from the first light emitting element and light emitted from the first phosphor, is incident on the color filter, transmitting a part of the first light (L G), characterized in that said first light emitting element has an emission peak wavelength of 400 nm or more and 510 nm or less, said first phosphor has an emission peak having a wavelength of 485 nm or more and 700 nm or less, said color filter is an outer lens of said lighting apparatus for an automobile, has a transmittance for light with a wavelength of 600 nm or more and 730 nm or less that is 80% or more and a transmittance for light with a wavelength of 410 nm or more and 480 nm or less that is 3% or more and 50% or less, wherein said light (L W) after being transmitted through the color filter is white. a first light emitting, a first phosphor disposed in such a position that light (L B1) emitted by the first light emitting element is incident on the first phosphor, the first phosphor being excited by the light, and a color filter disposed in such a position that first light (L G) includes the light (L B1) emitted from the first light emitting element and light emitted from the first phosphor, is incident on the color filter, transmitting a part of the first light (L G), said first light emitting element has an emission peak wavelength of 400 nm or more and 510 nm or less, said first phosphor has an emission peak having a wavelength of 485 nm or more and 700 nm or less, said color filter is an outer lens of said lighting apparatus for an automobile, has a transmittance for light with a wavelength of 600 nm or more and 730 nm or less that is 80% or more and a transmittance for light with a wavelength of 410 nm or more and 480 nm or less that is 3% or more and 50% or less, wherein said light (L W) after being transmitted through the color filter is white.
A method of manufacturing a high tenacity yarn, the method being performed in such a manner that a yarn made of at least one of nylon and polyester is fed from a bobbin to a water bath containing a coating material, and the yarn is coated with the coating material while passing over a roller provided in the water bath, thus obtaining a coated yarn, and comprising: coating the yarn while the yarn passes over the roller at a speed of about 5 to 30 m per minute, and controlling a thickness of the coating material coated on the yarn by controlling a degree of contact between a thickness control plate and the yarn by using the thickness control plate provided behind the roller and being movable relative to the yarn, wherein the coating material contains 3 to 35 parts by weight of a reinforcing agent composed of a mineral material per 100 parts by weight of a coating liquid containing polyurethane, the mineral material is at least one of basalt, glass fiber, and iron and the mineral material is in a powder form having a particle size of 30 to 500 μm; drying the coated yarn passing through an inside of a drying furnace by far-infrared radiation at 100 to 600°C; additionally coating the dried coated yarn with an additional coating material which is obtained by diluting the coating material with water to have a concentration of 60 to 80%, thus obtaining a secondary coated yarn; and drying the secondary coated yarn passing through an inside of a drying furnace by far-infrared radiation at 100 to 600°C for a shorter time than in the drying the coated yarn. coating the yarn while the yarn passes over the roller at a speed of about 5 to 30 m per minute, and controlling a thickness of the coating material coated on the yarn by controlling a degree of contact between a thickness control plate and the yarn by using the thickness control plate provided behind the roller and being movable relative to the yarn, wherein the coating material contains 3 to 35 parts by weight of a reinforcing agent composed of a mineral material per 100 parts by weight of a coating liquid containing polyurethane, the mineral material is at least one of basalt, glass fiber, and iron and the mineral material is in a powder form having a particle size of 30 to 500 μm; drying the coated yarn passing through an inside of a drying furnace by far-infrared radiation at 100 to 600°C; additionally coating the dried coated yarn with an additional coating material which is obtained by diluting the coating material with water to have a concentration of 60 to 80%, thus obtaining a secondary coated yarn; and drying the secondary coated yarn passing through an inside of a drying furnace by far-infrared radiation at 100 to 600°C for a shorter time than in the drying the coated yarn.
A cap assembly (100, 101, 102, 103, 104) for a secondary battery, comprising a cap plate, an electrode terminal, a fixing member (22, 32), a sealing member (23,33) and a connecting member, said cap assembly (100, 101, 102, 103, 104) being characterized in that: the cap plate has an electrode lead-out hole; the fixing member (22, 32) is engaged with the connecting member and the cap plate is engaged with the connecting member so that the fixing member (22, 32) is fixed to the cap plate through the connecting member; the electrode terminal comprises a terminal board (21, 31), wherein an outer peripheral surface of the terminal board (21, 31) is surrounded at least in part by the fixing member (22, 32) to fix the electrode terminal to the fixing member (22, 32), all of the electrode terminal, the fixing member (22, 32), the sealing member (23,33) and the connecting member are located at a side of the cap plate away from inside of a shell of the secondary battery, the terminal board (21, 31) covers the electrode lead-out hole, and the outer peripheral surface of the terminal board (21, 31) protrudes out of an inner wall of the electrode lead-out hole; and the sealing member (23,33) contacts with the terminal board (21, 31) and is disposed between the terminal board (21, 31) and the cap plate to seal the electrode lead-out hole, wherein one of the terminal board (21, 31) and the fixing member (22, 32) is provided with a convex portion, and the other is provided with a concave portion that accommodates the convex portion, and the concave portion and the convex portion are fitted with each other to fix the terminal board (21, 31) to the fixing member (22, 32). the cap plate has an electrode lead-out hole; the fixing member (22, 32) is engaged with the connecting member and the cap plate is engaged with the connecting member so that the fixing member (22, 32) is fixed to the cap plate through the connecting member; the electrode terminal comprises a terminal board (21, 31), wherein an outer peripheral surface of the terminal board (21, 31) is surrounded at least in part by the fixing member (22, 32) to fix the electrode terminal to the fixing member (22, 32), all of the electrode terminal, the fixing member (22, 32), the sealing member (23,33) and the connecting member are located at a side of the cap plate away from inside of a shell of the secondary battery, the terminal board (21, 31) covers the electrode lead-out hole, and the outer peripheral surface of the terminal board (21, 31) protrudes out of an inner wall of the electrode lead-out hole; and the sealing member (23,33) contacts with the terminal board (21, 31) and is disposed between the terminal board (21, 31) and the cap plate to seal the electrode lead-out hole, wherein one of the terminal board (21, 31) and the fixing member (22, 32) is provided with a convex portion, and the other is provided with a concave portion that accommodates the convex portion, and the concave portion and the convex portion are fitted with each other to fix the terminal board (21, 31) to the fixing member (22, 32).
A method for the adhesive culture of a pluripotent stem cell, comprising culturing the pluripotent stem cell in a medium comprising a hydrophilic polymer and equal to or less than 0.010 % of albumin, wherein the medium further comprises N-acetyl-L-cysteine as an antioxidant.
A monitor support, comprising a base member; a coupling member for attachment of a monitor main body thereto; a link member extending between the coupling member and the base member and pivotally mounted to the coupling member to allow the monitor main body to be tilted for inclination adjustment, wherein the pivotal mounting between the coupling member and the link member comprises a monitor angle restricting device configured so as to restrict tilting of the coupling member relative to the link member within a predetermined reference angle range, characterised in that the predetermined reference angle range is defined at one end by an absolute end point beyond which the coupling member cannot tilt and, at the opposite end, by an intermediate stop point, the monitor angle restricting device being configured to allow the coupling member to be further tilted beyond the intermediate stop point of the predetermined reference angle range to a second absolute end point beyond which the coupling member cannot tilt when the coupling member is rotated further relative to the link member.
A system for producing syngas, the system comprising: a first stage gasifier for gasifying a feedstock to produce a first product, wherein the feedstock is segregated into a first group of feedstocks and a second group of feedstocks based on a predefined ash content and reactivity, and said first stage gasifier comprising: a low temperature gasifier for gasifying at least the first group of feedstocks at a temperature range of 500°C to 700°C to produce a first gaseous product; and a pyrolyser for pyrolysing at least the second group of feedstock at a temperature range of 500°C to 550°C to produce a second gaseous product, wherein the first product comprises the first gaseous product and the second gaseous product; and a second stage gasifier for gasifying the first product received from said first stage gasifier wherein the second stage gasifier operates at a temperature range of 1400°C to 1500°C to produce syngas, wherein said second stage gasifier is further adapted to control an operating temperature of the second stage gasifier by controllably operating a plasma source for regulating composition of the syngas. a first stage gasifier for gasifying a feedstock to produce a first product, wherein the feedstock is segregated into a first group of feedstocks and a second group of feedstocks based on a predefined ash content and reactivity, and said first stage gasifier comprising: a low temperature gasifier for gasifying at least the first group of feedstocks at a temperature range of 500°C to 700°C to produce a first gaseous product; and a pyrolyser for pyrolysing at least the second group of feedstock at a temperature range of 500°C to 550°C to produce a second gaseous product, wherein the first product comprises the first gaseous product and the second gaseous product; and a low temperature gasifier for gasifying at least the first group of feedstocks at a temperature range of 500°C to 700°C to produce a first gaseous product; and a pyrolyser for pyrolysing at least the second group of feedstock at a temperature range of 500°C to 550°C to produce a second gaseous product, wherein the first product comprises the first gaseous product and the second gaseous product; and a second stage gasifier for gasifying the first product received from said first stage gasifier wherein the second stage gasifier operates at a temperature range of 1400°C to 1500°C to produce syngas, wherein said second stage gasifier is further adapted to control an operating temperature of the second stage gasifier by controllably operating a plasma source for regulating composition of the syngas.