mhurhangee/patent-ind-claim-en huggingface dataset:
A tray sealing machine , comprising: a sealing tool including a lower part of the tool and an upper part of the tool configured to cooperate to close packaging trays; a machine frame comprising a space for accommodating a lifter device below the sealing tool ; and a lifter unit provided in the space for accommodating a lifter device and secured therein to the machine frame by means of a detachable connection , configured to move the lower part of the tool between a rest position and a sealing position, wherein the lower part of the tool is raised in the sealing position compared to its position in the rest position, characterized in that the detachable connection allows the lifter unit to be lowered into the space for accommodating a lifter device; and the lifter unit can be removed laterally from the space for accommodating a lifter device of the machine frame as a single unit after detaching the detachable connection. a sealing tool including a lower part of the tool and an upper part of the tool configured to cooperate to close packaging trays; a machine frame comprising a space for accommodating a lifter device below the sealing tool ; and a lifter unit provided in the space for accommodating a lifter device and secured therein to the machine frame by means of a detachable connection , configured to move the lower part of the tool between a rest position and a sealing position, wherein the lower part of the tool is raised in the sealing position compared to its position in the rest position, characterized in that the detachable connection allows the lifter unit to be lowered into the space for accommodating a lifter device; and the lifter unit can be removed laterally from the space for accommodating a lifter device of the machine frame as a single unit after detaching the detachable connection.
A composition comprising HFO-1234yf and HFC-143a, the composition containing less than 1 weight percent of HFC-143a.
A method comprising: receiving a global trigger with a first millimeter-wave radar; receiving the global trigger with a second millimeter-wave radar; generating a first internal trigger of the first millimeter-wave radar after a first offset duration from the global trigger; generating a second internal trigger of the second millimeter-wave radar after a second offset duration from the global trigger; start transmitting first millimeter-wave radar signals with the first millimeter-wave radar based on the first internal trigger; and start transmitting second millimeter-wave radar signals with the second millimeter-wave radar based on the second internal trigger, wherein the second offset duration is different from the first offset duration, and wherein the first and second millimeter-wave radar signals are transmitted sequentially so as to exhibit no temporal overlap. receiving a global trigger with a first millimeter-wave radar; receiving the global trigger with a second millimeter-wave radar; generating a first internal trigger of the first millimeter-wave radar after a first offset duration from the global trigger; generating a second internal trigger of the second millimeter-wave radar after a second offset duration from the global trigger; start transmitting first millimeter-wave radar signals with the first millimeter-wave radar based on the first internal trigger; and start transmitting second millimeter-wave radar signals with the second millimeter-wave radar based on the second internal trigger, wherein the second offset duration is different from the first offset duration, and wherein the first and second millimeter-wave radar signals are transmitted sequentially so as to exhibit no temporal overlap.
A work machine comprising an exhaust gas purifying device which includes a selective catalytic reducing device that performs treatment on exhaust gas of an engine , and a reducing agent injection device that injects a reducing agent into exhaust gas to be supplied to the selective catalytic reducing device , the work machine comprising a housing that delimits an engine room accommodating the engine and the exhaust gas purifying device , wherein the housing includes a top board that covers the engine room above the engine , and an exhaust duct that is provided in the top board and discharges air in the engine room to outside of the engine room , and a part of a reducing agent supply pipe for guiding the reducing agent to the reducing agent injection device is disposed in the exhaust duct and connected to the reducing agent injection valve of the reducing agent injection device , the exhaust duct includes an opening cover that covers an upper side of an opening in the top board and is disposed opposing to an upper surface of the top board with a clearance therebetween, and a support member that supports the opening cover , and within the exhaust duct that is in a position above the reducing agent injection device and includes the clearance between the upper surface of the top board and the opening cover , a top portion of the reducing agent supply pipe is located inside the exhaust duct above the upper surface of the top board , and a reservoir area (RA) between the top portion (TP) of the reducing agent supply pipe and a connection portion (CP2) of the reducing agent supply pipe with the reducing agent injection device is held inside the opening in plan view.
A method for manufacturing shoe parts in an automated manner, the method comprising: positioning a first shoe part at a first manufacturing station , wherein a part-recognition system determines a first identity of the first shoe part and determines a first orientation and first location of the first shoe part ; retrieving a second shoe part from a second manufacturing station , wherein the part-recognition system determines a second identity of the second shoe part and determines a second orientation of the second shoe part ; using a part-manufacturing apparatus to transfer the second shoe part from the second orientation to a third orientation, which is determined based on the first orientation and the first identity; and using the part-manufacturing apparatus , which transferred the second shoe part , to temporarily attach the second shoe part to the first shoe part to maintain positioning for downstream processing, wherein the part recognition system records respective images of the first shoe part and the second shoe part , and wherein the respective images comprise two-dimensional representations that are analyzed to determine the respective identity and the respective orientation. positioning a first shoe part at a first manufacturing station , wherein a part-recognition system determines a first identity of the first shoe part and determines a first orientation and first location of the first shoe part ; retrieving a second shoe part from a second manufacturing station , wherein the part-recognition system determines a second identity of the second shoe part and determines a second orientation of the second shoe part ; using a part-manufacturing apparatus to transfer the second shoe part from the second orientation to a third orientation, which is determined based on the first orientation and the first identity; and using the part-manufacturing apparatus , which transferred the second shoe part , to temporarily attach the second shoe part to the first shoe part to maintain positioning for downstream processing,
Heat exchanger comprising a fluid flow tube and configured to allow an exchange of heat between the fluid flowing in the tube and an enclosure surrounding the tube, the enclosure being formed of two profiled bars (112a, 112b; 212a, 212b; 312) configured to surround the tube over at least one part of its length, each comprising: - a recess intended to receive the tube, the inner surface of the recess being a portion of a cylinder, characterized in that each of the bars comprises: - a joint surface distributed on either side of the recess and configured to form a joint with the other profiled bar following soldering of the bars, and in that the joint surfaces of the profiled bars are complementary in shape so as to form a gap therebetween, at least one soldering element being arranged in at least one part of said gap , and the joint surfaces of the profiled bars are arranged in different planes such that said gap forms at least one baffle on each side of the tube . the enclosure being formed of two profiled bars (112a, 112b; 212a, 212b; 312) configured to surround the tube over at least one part of its length, each comprising: - a recess intended to receive the tube, the inner surface of the recess being a portion of a cylinder, characterized in that each of the bars comprises: - a joint surface distributed on either side of the recess and configured to form a joint with the other profiled bar following soldering of the bars, - a recess intended to receive the tube, the inner surface of the recess being a portion of a cylinder, characterized in that each of the bars comprises: - a joint surface distributed on either side of the recess and configured to form a joint with the other profiled bar following soldering of the bars, - a joint surface distributed on either side of the recess and configured to form a joint with the other profiled bar following soldering of the bars, and in that the joint surfaces of the profiled bars are complementary in shape so as to form a gap therebetween, at least one soldering element being arranged in at least one part of said gap , and the joint surfaces of the profiled bars are arranged in different planes such that said gap forms at least one baffle on each side of the tube .
A method for use in a wireless transmitter of adaptive cyclic redundancy check (CRC) length selection, the method comprising: obtaining a system parameter related to a number of beam sweeps, L test , used by the wireless transmitter for transmitting a wireless signal, wherein the obtained system parameter comprises a number of transmit antenna elements; determining the number of beam sweeps based on the number of transmit antenna elements; selecting a CRC length by direct calculation based on the determined number of beam sweeps; selecting a CRC polynomial of the selected length; generating CRC bits from time-dependent or time-independent information bits using the selected CRC polynomial; concatenating the generated CRC bits with the time-dependent or time-independent information bits; encoding the concatenated bits; and transmitting the encoded bits to a wireless receiver . obtaining a system parameter related to a number of beam sweeps, L test , used by the wireless transmitter for transmitting a wireless signal, wherein the obtained system parameter comprises a number of transmit antenna elements; determining the number of beam sweeps based on the number of transmit antenna elements; selecting a CRC length by direct calculation based on the determined number of beam sweeps; selecting a CRC polynomial of the selected length; generating CRC bits from time-dependent or time-independent information bits using the selected CRC polynomial; concatenating the generated CRC bits with the time-dependent or time-independent information bits; encoding the concatenated bits; and transmitting the encoded bits to a wireless receiver .
An ultrasound imaging system comprising: a processor configured to: analyze ultrasound signals to generate power Doppler data and color Doppler data; characterized in that the processor is further configured to: separate the color Doppler data into luminance data and chrominance data; generate an augmentation map based, at least in part, on power Doppler data; adjust the luminance data based, at least in part, on the power Doppler data to generate adjusted luminance data, wherein adjusting the luminance data comprises combining the augmentation map and the luminance data; and combine the adjusted luminance data and the chrominance data to generate augmented color Doppler data. separate the color Doppler data into luminance data and chrominance data; generate an augmentation map based, at least in part, on power Doppler data; adjust the luminance data based, at least in part, on the power Doppler data to generate adjusted luminance data, wherein adjusting the luminance data comprises combining the augmentation map and the luminance data; and combine the adjusted luminance data and the chrominance data to generate augmented color Doppler data.
A buffer board structure for a treadmill being installable under a belt of said treadmill and applicable to create a buffering effect when said belt is trodden to sink and impact on said buffer board structure , wherein said buffer board structure comprises a plurality of bamboo layers which are placed one over another, each of said bamboo layers including a plurality of bamboo sheets attached side by side along an axial direction (X) characterized in that said bamboo sheets of any two of said adjacent bamboo layers being parallel to each other along said axial direction (X), wherein the buffer board structure further comprises a plurality of membrane layers , each of said membrane layers being laid between said two adjacent bamboo layers , an adhesive arranged between each of said membrane layers and each of said bamboo layers to adhere said bamboo layers to said membrane layers and a slip resistant layer adhered to an upper surface of one of said bamboo layers which is placed at a top position. a plurality of membrane layers , each of said membrane layers being laid between said two adjacent bamboo layers , an adhesive arranged between each of said membrane layers and each of said bamboo layers to adhere said bamboo layers to said membrane layers and a slip resistant layer adhered to an upper surface of one of said bamboo layers which is placed at a top position.
Remotely controllable weapon station with a weapon , which is alignably mounted in a carriage in azimuth (A) and elevation (E), for combating a target object (ZO), comprising: at least a drive controllable by a control signal (S, V) for alignment of the weapon in azimuth (A) and/or elevation (E), a control unit for providing the control signal (S, V), wherein the control unit is configured to vary the provided control signal (S) for controlling the weapon for firing a sequence of projectiles such that the fired projectiles of the sequence represent a predetermined projectile pattern (GM) perpendicular to the trajectory of the fired projectiles, wherein the control unit is configured to generate a varied control signal (V) for controlling the weapon for firing the sequence of projectiles with the predetermined projectile pattern (GM) by a linkage of the provided control signal (S) with an additional control signal (Z), and a variation unit configured to vary the additional control signal (Z) over the time according to a specific variation pattern such that the control unit is configured to control the weapon for firing the projectiles by the varied control signal (V) such that the fired projectiles of the sequence represent the predetermined projectile pattern (GM), wherein the variation unit is configured to adjust the variation pattern in dependence on a coincidence window adjusted for the weapon , wherein the coincidence window is defined as a deviation between the line of fire against the line of sight and depends on the size and the distance of the target object. at least a drive controllable by a control signal (S, V) for alignment of the weapon in azimuth (A) and/or elevation (E), a control unit for providing the control signal (S, V), wherein the control unit is configured to vary the provided control signal (S) for controlling the weapon for firing a sequence of projectiles such that the fired projectiles of the sequence represent a predetermined projectile pattern (GM) perpendicular to the trajectory of the fired projectiles, wherein the control unit is configured to generate a varied control signal (V) for controlling the weapon for firing the sequence of projectiles with the predetermined projectile pattern (GM) by a linkage of the provided control signal (S) with an additional control signal (Z), and a variation unit configured to vary the additional control signal (Z) over the time according to a specific variation pattern such that the control unit is configured to control the weapon for firing the projectiles by the varied control signal (V) such that the fired projectiles of the sequence represent the predetermined projectile pattern (GM), wherein the variation unit is configured to adjust the variation pattern in dependence on a coincidence window adjusted for the weapon , wherein the coincidence window is defined as a deviation between the line of fire against the line of sight and depends on the size and the distance of the target object.
An IL-17 production inhibitory composition for use in a method for the prevention or treatment of diseases caused by the production of IL-17, wherein the disease is selected from the group consisting of Kawasaki disease, microscopic polyangitis, adult-onset Still's disease, Stevens-Johnson syndrome or toxic epidermal necrolysis, comprising adipose tissue-derived mesenchymal stem cells as an active ingredient, wherein at least 50% of the adipose tissue-derived mesenchymal stem cells are CD10, CD13, CD29, CD44 and CD90 positive, and CD34, CD45 and STRO-1 negative.
Distributor and/or fire protection casing comprising a body which has at least one body wall which is formed at least partially from a plate compound structure consisting of at least three plates, wherein an outer plate of these plates, which forms an outer side of the distributor and/or fire protection casing , is formed from at least one gypsum fiber board , and the plate compound structure comprises at least one mineral fiber board arranged on an inner side of the at least one gypsum fiber board and at least one calcium silicate board arranged on an inner side of the at least one mineral fiber board and facing an interior space of the distributor and/or fire protection casing , characterized in that one of the body walls formed from the plate compound structure is formed as a door to which a body wall , also formed from the plate compound structure, is adjacent, wherein these plate compound structures are formed in a step-like or stair-like manner at their ends, wherein an upon exceeding a temperature threshold value automatically foaming-up inner seal is located on a side edge of the calcium silicate board of the door , an upon exceeding a temperature threshold value automatically foaming-up intermediate seal is located on a side edge of the mineral fiber board of the door , and an upon exceeding a temperature threshold value automatically foaming-up outer seal is located on a side edge of the gypsum fiber board of the door .
A computer-implemented method for determining whether a pixel of a pixel region of a computer-rendered image is a firefly, said pixel region comprising the pixel and a plurality of pixels, and each pixel comprising a set of samples representing an intersection of a channel and the respective pixel; the method comprising: dividing the set of samples originating from each pixel in the pixel region into a first subset of samples and a second subset of samples; first identifying whether the pixel is an outlier based on statistical variance data of the first subset of samples; second identifying whether the pixel is an outlier based on statistical variance data of the second subset of samples; determining that the pixel is not a firefly in response to both the pixel being first identified as an outlier based on the statistical variance data of the first subset of samples, and the pixel being second identified as an outlier based on the statistical variance data of the second subset of samples; and determining that the pixel is a firefly in response to either (i) the pixel not being first identified as an outlier based on the statistical variance data of the first subset of samples and being second identified as an outlier based on the statistical variance data of the second subset of samples, or (ii) the pixel not being second identified as an outlier based on the statistical variance data of the second subset of samples and being first identified as an outlier based on the statistical variance data of the first subset of samples. dividing the set of samples originating from each pixel in the pixel region into a first subset of samples and a second subset of samples; first identifying whether the pixel is an outlier based on statistical variance data of the first subset of samples; second identifying whether the pixel is an outlier based on statistical variance data of the second subset of samples; determining that the pixel is not a firefly in response to both the pixel being first identified as an outlier based on the statistical variance data of the first subset of samples, and the pixel being second identified as an outlier based on the statistical variance data of the second subset of samples; and determining that the pixel is a firefly in response to either (i) the pixel not being first identified as an outlier based on the statistical variance data of the first subset of samples and being second identified as an outlier based on the statistical variance data of the second subset of samples, or (ii) the pixel not being second identified as an outlier based on the statistical variance data of the second subset of samples and being first identified as an outlier based on the statistical variance data of the first subset of samples.
A method for determining a set of points to be supported for an object having to be fabricated by means of an additive fabrication method, comprising a step consisting in subdividing the object into successive layers (C i ), each layer corresponding to a thickness of material deposited during the fabrication of the object ; and characterized in that it comprises, for each layer, adding, to a set (E0) of points to be supported, points to be supported on the surface of the object which make it possible to guarantee the stability of all the sub-objects (2 n ) of the object , a sub-object being defined as a solid resulting from the fabrication of the i first layers (C i ) of the object, in that it comprises, to guarantee the stability of any sub-object (2 n ), a step consisting in checking that each sub-object placed on a horizontal base plane is in stable static equilibrium, a step during which it is checked whether a so-called center-of-mass disk (D(M n )), the center of which corresponds to the projection of the center of mass (C m,n ) of said sub-object and having a predefined radius (R), is entirely situated within a base surface (B n ) of said sub-object, and in that it comprises, if it is confirmed that the sub-object (2 n ) is unstable, a step consisting in increasing the base surface (B n ) of said sub-object by providing at least one substantially vertical support element between a point of contact (Pc) of the base plane located outside the base surface and a point to be supported (P S ) on the surface of the sub-object (2 n ) projected vertically outside of the base plane of the sub-object and located at a distance from said point of contact less than a distance corresponding to the radius (R) of said center-of-mass disk, said point to be supported (P S ) on the surface of the sub-object thus defined being added to the set (E0) of the points to be supported, the base surface Bn of a sub-object 2n being the smallest convex polygonal surface comprising all the points of the sub-object 2n in contact with the base plane XY.