mhurhangee/ep-ind-claims huggingface dataset:
An insulating glass unit, comprising: first, second, and third substantially parallel spaced apart glass substrates, the first substrate being an outermost substrate and the third substrate being an innermost substrate; a first spacer system disposed proximate peripheral edges of the first and second substrates, a first cavity being defined between the first and second substrates; a second spacer system disposed proximate peripheral edges of the second and third substrates, a second cavity being defined between the second and third substrates; first and second low-emissivity (low-E) coatings disposed on interior surfaces of the first and third substrates respectively such that the first and second low-E coatings face one another; and first and second antireflective coatings disposed on opposing major surfaces of the second substrate, wherein each said low-E coating (24a, 24b) comprises, moving away from the substrate on which it is disposed: a layer comprising titanium oxide, a layer comprising zinc oxid, an infrared reflecting layer comprising silver, a layer comprising a metal, oxide, or sub-oxide of Ni and/or Cr, a layer comprising tin oxide, and a layer comprising silicon nitride, and further comprising a third AR coating disposed on an outermost surface of the first substrate, and wherein the first and third glass substrates are heat treated and the second substrate is not heat treated. first, second, and third substantially parallel spaced apart glass substrates, the first substrate being an outermost substrate and the third substrate being an innermost substrate; a first spacer system disposed proximate peripheral edges of the first and second substrates, a first cavity being defined between the first and second substrates; a second spacer system disposed proximate peripheral edges of the second and third substrates, a second cavity being defined between the second and third substrates; first and second low-emissivity (low-E) coatings disposed on interior surfaces of the first and third substrates respectively such that the first and second low-E coatings face one another; and first and second antireflective coatings disposed on opposing major surfaces of the second substrate, wherein each said low-E coating (24a, 24b) comprises, moving away from the substrate on which it is disposed: a layer comprising titanium oxide, a layer comprising zinc oxid, an infrared reflecting layer comprising silver, a layer comprising a metal, oxide, or sub-oxide of Ni and/or Cr, a layer comprising tin oxide, and a layer comprising silicon nitride, and a layer comprising titanium oxide, a layer comprising zinc oxid, an infrared reflecting layer comprising silver, a layer comprising a metal, oxide, or sub-oxide of Ni and/or Cr, a layer comprising tin oxide, and a layer comprising silicon nitride, and further comprising a third AR coating disposed on an outermost surface of the first substrate, and wherein the first and third glass substrates are heat treated and the second substrate is not heat treated.
Guiding rail provided with one or more gliding elements, suitable for supporting a dunnage structure in a transport and/or storage device, whereby said rail is provided with a recess in the longitudinal direction of said rail, which recess is at least partially provided with an intermediate material, characterized in that the intermediate material comprises a polymer insert, or a coating added during a painting and/or anodization process, the coating completely covering the recess, wherein at least one of said gliding elements is slidably fitted in said insert or in said coated recess, and wherein: - in case of the intermediate material insert, said insert comprises lips, and - in case of the intermediate material coating, said guiding rail comprises lips partly enclosing the coated recess, wherein in both cases said lips partly enclose said at least one gliding element, inhibiting removal of said at least one gliding element. - in case of the intermediate material insert, said insert comprises lips, and - in case of the intermediate material coating, said guiding rail comprises lips partly enclosing the coated recess,
A supply assembly for a marker system comprising: a first housing section and a second housing section each comprising a plurality of upstanding walls (18, 20) defining an enclosure for receiving and storing in a stacked arrangement marker elements to which an indicia is to be applied by the marker system; a support surface for receiving marker elements from one of the first and second housing sections and supporting them in a picking position in which they may be grasped by a picking device of the marker system; transfer means for moving the marker elements from one of the first and second the housing sections to the picking position on the support surface; and at least one support member fixed relative to the support surface and the transfer means and configured to be independently connected to by the first and second housing sections to locate the housing sections in a predetermined position relative to the support surface and transfer means; wherein the first and second housing sections are configured differently to respectively receive marker elements of different sizes, and each housing section is configured to removabley connect to the at least one support member to enable the housing sections to be removed and selectively interchanged with each other depending on the size of marker to be housed. a first housing section and a second housing section each comprising a plurality of upstanding walls (18, 20) defining an enclosure for receiving and storing in a stacked arrangement marker elements to which an indicia is to be applied by the marker system; a support surface for receiving marker elements from one of the first and second housing sections and supporting them in a picking position in which they may be grasped by a picking device of the marker system; transfer means for moving the marker elements from one of the first and second the housing sections to the picking position on the support surface; and at least one support member fixed relative to the support surface and the transfer means and configured to be independently connected to by the first and second housing sections to locate the housing sections in a predetermined position relative to the support surface and transfer means; wherein the first and second housing sections are configured differently to respectively receive marker elements of different sizes, and each housing section is configured to removabley connect to the at least one support member to enable the housing sections to be removed and selectively interchanged with each other depending on the size of marker to be housed.
An impeller cover for covering at least a face of an impeller of a compressor, the impeller cover comprising: a removable body having a first face and a second face opposing the first face, the second face being configured to match a front face of the impeller of the compressor such that the formation of air pockets between the impeller cover and the impeller are prevented, and further having a frontal portion covering an entire frontal portion of the impeller of the compressor; characterised by a fixing mechanism (58, 80, 82, 84, 86) connected to the removable body and being configured to fix the impeller cover to the impeller of the compressor.
A display screen film, comprising: a quartz glass layer and an orientated carbon nanotube layer, wherein the orientated carbon nanotube layer is located on the quartz glass layer, comprises orientated grown carbon nanotubes and is configured to refract all incident light through gaps between the orientated grown carbon nanotubes, wherein the orientated carbon nanotube layer is grown on the quartz glass layer, and the quartz glass layer is configured to transmit all the incident light and enable all the incident light to reach the orientated carbon nanotube layer, and wherein the gaps between the orientated grown carbon nanotubes on the oriented carbon nanotube layer have a size in the range of 400 nm to 700 nm.
A computer implemented method, comprising: receiving a natural language utterance; submitting the natural language utterance to a trained machine learning model comprising a sequence to sequence neural model (408, 410), the sequence to sequence neural model comprising an encoder (408, 504, 604) and a plurality of specialized decoders (508, 510, 512, 606, 608, 610), each of the plurality of decoders coupled to the encoder and being trained to recognize one or more tokens output from the encoder and to map the one or more tokens to one or more items (514, 516, 518, 612, 614, 616) of an API frame; receiving from the trained machine learning model, a plurality of items (514, 516, 518, 612, 614, 616), each item received from a different decoder (508, 510, 512, 606, 608, 610); assembling the plurality of items into the API frame (308, 702), the API frame representing an intermediate format between the natural language utterance and a final API format (314, 722); mapping the API frame (308, 702) to the final API format (314, 722); and issuing a call to the API using the final API format (314, 722). receiving a natural language utterance; submitting the natural language utterance to a trained machine learning model comprising a sequence to sequence neural model (408, 410), the sequence to sequence neural model comprising an encoder (408, 504, 604) and a plurality of specialized decoders (508, 510, 512, 606, 608, 610), each of the plurality of decoders coupled to the encoder and being trained to recognize one or more tokens output from the encoder and to map the one or more tokens to one or more items (514, 516, 518, 612, 614, 616) of an API frame; receiving from the trained machine learning model, a plurality of items (514, 516, 518, 612, 614, 616), each item received from a different decoder (508, 510, 512, 606, 608, 610); assembling the plurality of items into the API frame (308, 702), the API frame representing an intermediate format between the natural language utterance and a final API format (314, 722); mapping the API frame (308, 702) to the final API format (314, 722); and issuing a call to the API using the final API format (314, 722).
A topical cosmetic or dermatological composition for application to the skin or the nails or the hair, comprising an Exophiala mansonii-derived melanin-degrading enzyme extract and a cosmetically or dermatologically acceptable carrier, wherein the enzyme extract is present in an amount in the range of from about 0.05 percent to about 20 percent by weight of the total composition and wherein the enzyme extract is a purified solution, preferably obtained by a method comprising a step of filtering through a 0.22μm filter.
A control actuator system comprising: a control surface mounted on a body and adapted to rotate about an axis normal to said body; a torsional spring coupled to the control surface to cause the control surface to oscillate back and forth about the axis at a natural frequency of the system and wherein the natural frequency of the system is a roll frequency of the body; and a servo motor for providing an initial torque to rotate the control surface about the axis in the first direction and for periodically providing additional torque to maintain oscillation of the control surface at the roll frequency of the body. a control surface mounted on a body and adapted to rotate about an axis normal to said body; a torsional spring coupled to the control surface to cause the control surface to oscillate back and forth about the axis at a natural frequency of the system and wherein the natural frequency of the system is a roll frequency of the body; and a servo motor for providing an initial torque to rotate the control surface about the axis in the first direction and for periodically providing additional torque to maintain oscillation of the control surface at the roll frequency of the body.
A saddle-type vehicle including a vehicle body frame structure which includes a head pipe, a pair of left and right main frames (14L, 14R) disposed rearwardly of the head pipe, and a down frame positioned forwardly of an engine that is disposed below the main frames (14L, 14R) and downwardly of the main frames (14L, 14R), wherein said left and right main frames (14L, 14R) have front ends connected to the head pipe and are disposed such that the distance between the left and right main frames (14L, 14R) is progressively greater in a rearward direction, said left and right main frames (14L, 14R) being connected to each other by an upper plate-like member; and said upper plate-like member is spaced rearwardly from said head pipe and has left and right ends welded respectively to said left and right main frames (14L, 14R), and each of said main frames (14L, 14R) includes a tubular member, characterized in that said upper plate-like member is welded to said main frames (14L, 14R) in ranges from inner surfaces thereof to lower surfaces thereof, and a side plate-like member is welded to outer side surfaces of said main frames (14L, 14R), said down frame, and a lower extension extending downwardly from said main frames (14L, 14R) of said upper plate-like member.
A method for counting bakeable food products, 2. the method comprises the following steps: - arranging an optical sensor in an inspection area through which bakeable food products (1, 5) conveyed by a conveyor belt (2, 6) pass; - capturing, by the optical sensor, an image of the bakeable food products as they pass through the inspection area; - identifying, by a processor module, a number of pixels in the captured image that correspond to one of the food products, based on a colour contrast threshold; - determining, by the processor module, the presence of a product in the inspection area if the number of identified pixels is greater than a pre-established minimum threshold; and - updating a product counter, adding one unit each time the presence of a product is determined; wherein determining the presence of a product in the inspection area if the number of identified pixels is greater than a pre-established minimum threshold further comprises verifying that the number of identified pixels is greater than said threshold in a certain number of successive image capturing. - arranging an optical sensor in an inspection area through which bakeable food products (1, 5) conveyed by a conveyor belt (2, 6) pass; - capturing, by the optical sensor, an image of the bakeable food products as they pass through the inspection area; - identifying, by a processor module, a number of pixels in the captured image that correspond to one of the food products, based on a colour contrast threshold; - determining, by the processor module, the presence of a product in the inspection area if the number of identified pixels is greater than a pre-established minimum threshold; and - updating a product counter, adding one unit each time the presence of a product is determined;
A blood pressure measuring system comprising: a sphygmomanometer which is configured to invasively measure a blood pressure value of a subject; a calibrating section which is configured to calibrate a measurement reference value of the blood pressure value; characterised by a first atmospheric pressure sensor which is adapted to be attached to the subject; a second atmospheric pressure sensor which is fixed to a predetermined position; a difference acquiring section which is configured to acquire a difference between a first atmospheric pressure value detected by the first atmospheric pressure sensor, and a second atmospheric pressure value detected by the second atmospheric pressure sensor; and a determining section which, based on the difference, is configured to determine whether a calibration of the measurement reference value is necessary or not. a sphygmomanometer which is configured to invasively measure a blood pressure value of a subject; a calibrating section which is configured to calibrate a measurement reference value of the blood pressure value; characterised by a first atmospheric pressure sensor which is adapted to be attached to the subject; a second atmospheric pressure sensor which is fixed to a predetermined position; a difference acquiring section which is configured to acquire a difference between a first atmospheric pressure value detected by the first atmospheric pressure sensor, and a second atmospheric pressure value detected by the second atmospheric pressure sensor; and a determining section which, based on the difference, is configured to determine whether a calibration of the measurement reference value is necessary or not.
A method of laser machining, in particular laser welding, of a workpiece by means of a laser tool which is arranged on a multi-axis hand of a manipulator, in particular of a robot, wherein a laser beam emanating from the laser tool travels along a path on the workpiece, which path has a first portion (6A, 6C) and a second portion (6B, 6D), which is non-collinear in relation to the first portion, wherein a specific hand axis of the hand of the manipulator is oriented collinearly with respect to a normal to the first portion (6A, 6C) of the path during the traversal of the first portion (6A, 6C) and, during the traversal of a portion of the path, oriented substantially parallel to a surface of the workpiece which surface the laser beam hits during the traversal of said portion, characterized in that said specific hand axis is a final, sixth axis of the hand of the manipulator, and that this is oriented collinearly with respect to a normal to the second portion (6B, 6D) of the path during the traversal of the second portion (6B, 6D).
FBG strain sensor arrangement with a sensor carrier of steel sheet, and at least one FBG strain sensor fastened thereto, wherein - the FBG strain sensor has an optical fibre with two end portions, between which at least one Bragg grating is provided, and an optical signal line (3a, 3b) is coupled at each of the end portions for transmission of the measurement signal, and - a protective cover is provided, which comprises the following features: -- along the optical fibre, the protective cover is configured thin and narrow and bonded to the sensor carrier, so that the optical fibre lying underneath with the Bragg grating is fixed on the sensor carrier, -- at each of both end portions of the optical fibre, i.e. at the respective coupling point with the signal line (3a, 3b), the protective cover is configured enlarged so that a cavity is formed underneath, and -- the edges of the enlarged protective cover are bonded to the sensor carrier as well, wherein - an elastic filler body is arranged in the cavity and embeds the coupling point in a vibration damping manner. - the FBG strain sensor has an optical fibre with two end portions, between which at least one Bragg grating is provided, and an optical signal line (3a, 3b) is coupled at each of the end portions for transmission of the measurement signal, and - a protective cover is provided, which comprises the following features: -- along the optical fibre, the protective cover is configured thin and narrow and bonded to the sensor carrier, so that the optical fibre lying underneath with the Bragg grating is fixed on the sensor carrier, -- at each of both end portions of the optical fibre, i.e. at the respective coupling point with the signal line (3a, 3b), the protective cover is configured enlarged so that a cavity is formed underneath, and -- the edges of the enlarged protective cover are bonded to the sensor carrier as well, wherein -- along the optical fibre, the protective cover is configured thin and narrow and bonded to the sensor carrier, so that the optical fibre lying underneath with the Bragg grating is fixed on the sensor carrier, -- at each of both end portions of the optical fibre, i.e. at the respective coupling point with the signal line (3a, 3b), the protective cover is configured enlarged so that a cavity is formed underneath, and -- the edges of the enlarged protective cover are bonded to the sensor carrier as well, wherein - an elastic filler body is arranged in the cavity and embeds the coupling point in a vibration damping manner.
A method for use in a radio communications system including multiple radio base stations (BS1 and BS2) and multiple radio terminals, the method characterized by: a determining a first positioning reference signal for a first cell (Cell 1) associated with a first radio base station that is based on a first cell identifier associated with the first cell (Cell 1); b - determining a second positioning reference signal for a second cell (Cell 2) associated with a second radio base station that is based on a second cell identifier associated with the second cell (Cell 2); where a radio terminal is capable of detecting the first and second positioning reference signals (PRS1, PRS2); c - obtaining information that the first and second radio base stations (BS1, BS2) transmitted a same cell identifier and different positioning reference signals (PRS1, PRS2); d - based on that obtained information, determining that there is a collision between the first and second cell identifiers; and e - resolving the collision by associating a different, non-conflicting cell identifier to either of the first cell (Cell 1) or the second cell (Cell 2). a determining a first positioning reference signal for a first cell (Cell 1) associated with a first radio base station that is based on a first cell identifier associated with the first cell (Cell 1); b - determining a second positioning reference signal for a second cell (Cell 2) associated with a second radio base station that is based on a second cell identifier associated with the second cell (Cell 2); c - obtaining information that the first and second radio base stations (BS1, BS2) transmitted a same cell identifier and different positioning reference signals (PRS1, PRS2); d - based on that obtained information, determining that there is a collision between the first and second cell identifiers; and e - resolving the collision by associating a different, non-conflicting cell identifier to either of the first cell (Cell 1) or the second cell (Cell 2).
A biological fluid collection device adapted to receive a sample, the biological fluid collection device comprising: a housing having an inlet, an outlet, and a passageway extending between the inlet and the outlet; a collection chamber inside the housing and in fluid communication with the passageway; characterized by further comprising: an evacuated chamber inside the housing and containing a vacuum; and a seal, wherein the seal is transitionable from a closed position in which the vacuum is enclosed within the evacuated chamber to an open position in which the vacuum is applied to the inlet to draw the sample within the collection chamber. a housing having an inlet, an outlet, and a passageway extending between the inlet and the outlet; a collection chamber inside the housing and in fluid communication with the passageway; an evacuated chamber inside the housing and containing a vacuum; and a seal, wherein the seal is transitionable from a closed position in which the vacuum is enclosed within the evacuated chamber to an open position in which the vacuum is applied to the inlet to draw the sample within the collection chamber.