mhurhangee/patent-ind-claim-en huggingface dataset:
A vibratory screening machine, comprising: a wall member ; a concave support surface ; a central member ; a screen assembly including a frame having a plurality of side members and a screen supported by the frame ; a compression assembly attached to an exterior surface of the wall member , the compression assembly including a retractable member that advances and contracts, wherein as the retractable member advances it pushes the frame against the central member forming the screen assembly into a concave shape against the concave support surface , the top surface of the screen assembly forming a concave screening surface; and an acceleration arrangement configured to impart an acceleration to the screen assembly , characterized in that the vibratory screening machine further comprises a guide assembly attached to the wall member and having at least one mating surface , wherein a portion of the screen assembly forms a screen assembly mating surface configured to mate with the at least one mating surface of the guide assembly , wherein the guide assembly is configured to guide the screen assembly into a fixed position so that the retractable member pushes against the frame of the screen assembly as the retractable member advances. a wall member ; a concave support surface ; a central member ; a screen assembly including a frame having a plurality of side members and a screen supported by the frame ; a compression assembly attached to an exterior surface of the wall member , the compression assembly including a retractable member that advances and contracts, wherein as the retractable member advances it pushes the frame against the central member forming the screen assembly into a concave shape against the concave support surface , the top surface of the screen assembly forming a concave screening surface; and an acceleration arrangement configured to impart an acceleration to the screen assembly , characterized in that the vibratory screening machine further comprises a guide assembly attached to the wall member and having at least one mating surface , wherein a portion of the screen assembly forms a screen assembly mating surface configured to mate with the at least one mating surface of the guide assembly , wherein the guide assembly is configured to guide the screen assembly into a fixed position so that the retractable member pushes against the frame of the screen assembly as the retractable member advances.
A method for making a polyolefin, comprising: (a) polymerizing one or more monomers in the presence of a solvent and a catalyst to form a reaction product; (b) removing an effluent from the reaction product, wherein the effluent comprises an active catalyst and one or more unreacted monomers; (c) combining a quench, comprising carbon dioxide, with the effluent to form a quenched polymer stream comprising a carboxyl metal complex; and (d) recovering a polymer from the quenched polymer stream. (a) polymerizing one or more monomers in the presence of a solvent and a catalyst to form a reaction product; (b) removing an effluent from the reaction product, wherein the effluent comprises an active catalyst and one or more unreacted monomers; (c) combining a quench, comprising carbon dioxide, with the effluent to form a quenched polymer stream comprising a carboxyl metal complex; and (d) recovering a polymer from the quenched polymer stream.
A telescopic arm for a forestry crane having a housing of an outer arm provided with a middle telescopic arm and inside the middle arm an inner telescopic arm as well as a hydraulic cylinder , flexible hydraulic tubes (8a, 8b, 8c in 8d), a first chain running on a first pulley and a second chain running on a second pulley outside of the arm , wherein the hydraulic cylinder with a piston rod is installed in the longitudinal axis of the outer arm ; characterised in that the flexible hydraulic tubes needed for control of outer users are installed on two separate wheels , wherein the first wheel is mounted on one side of the cylinder and the second wheel is mounted on the other side of the cylinder , and in that the first pulley with the first chain is installed besides the vertical axis of the wheels (5a and 5b) so that the chain runs separately from the flexible hydraulic tubes .
A clamping mechanism for clamping two parts together to prevent separation of the parts along an axis (Z), the clamping mechanism comprising: a first part provided with a first magnetic component ; a second part ; and a third part coupled to the second part and comprising a substantially C- shaped clamp provided with a second magnetic component , the mechanism being configured to bring the first and second parts together along said axis to cause rotational alignment and relative radial movement of the first and second magnetic components relative to said axis, due to the magnetic force generated by the magnetic components, to effect axial clamping of the first part to the second part by means of a radial movement of the substantially C-shaped clamp relative to said axis, and wherein relative rotation of the first and third parts to rotationally misalign the first and second magnetic components reverses this radial movement of the substantially C-shaped clamp, and effects unclamping of the first and second parts. a first part provided with a first magnetic component ; a second part ; and a third part coupled to the second part and comprising a substantially C- shaped clamp provided with a second magnetic component ,
A method of controlling a lighting device , the method comprising: - receiving a detected first location of a user in an area , - obtaining a second location of the lighting device and/or its light effect in the area , - obtaining object information about an object , the object information comprising at least dimensions of the object and a third location of the object in the area , wherein the object information further comprises transparency information about the object , - determining , based on the first, second and third location and the object dimensions, if the object is located between the user and the lighting device and/or its light effect , and determining if the lighting device and/or its light effect is visible for the user based on the transparency information, and - controlling the lighting device if the lighting device and/or its light effect is visible for the user. - receiving a detected first location of a user in an area , - obtaining a second location of the lighting device and/or its light effect in the area , - obtaining object information about an object , the object information comprising at least dimensions of the object and a third location of the object in the area , wherein the object information further comprises transparency information about the object , - determining , based on the first, second and third location and the object dimensions, if the object is located between the user and the lighting device and/or its light effect , and determining if the lighting device and/or its light effect is visible for the user based on the transparency information, and - controlling the lighting device if the lighting device and/or its light effect is visible for the user.
A system , comprising: a first portable device ; and a first communication module configured to determine distances between a frame of reference associated with a materials-handling vehicle (102-1) and respective portable devices ; and first logic configured to designate the first portable device as an operator device based, at least in part, on a first distance determined by the communication module ; wherein the first logic is further configured to exclude the first portable device from a pedestrian detection function in response to classifying the first portable device as an operator device, and characterised in that the first portable device is configured for operation in one of a pedestrian mode and an operator mode, wherein, in the pedestrian mode, the first portable device is configured to broadcast a detection signal, and when designated as an operator device, the first portable device is configured to operate in the operator mode and terminate the broadcast of the detection signal. a first communication module configured to determine distances between a frame of reference associated with a materials-handling vehicle (102-1) and respective portable devices ; and first logic configured to designate the first portable device as an operator device based, at least in part, on a first distance determined by the communication module ; wherein the first logic is further configured to exclude the first portable device from a pedestrian detection function in response to classifying the first portable device as an operator device, and characterised in that the first portable device is configured for operation in one of a pedestrian mode and an operator mode, wherein, in the pedestrian mode, the first portable device is configured to broadcast a detection signal, and when designated as an operator device, the first portable device is configured to operate in the operator mode and terminate the broadcast of the detection signal.
A method for manufacturing a power module substrate, comprising: preparing a ceramics substrate , a metal plate composed of aluminum, and a Cu-layer having a thickness of 0.15 μm to 3 μm; stacking the ceramics substrate and the metal plate in layers with the Cu-layer interposed therebetween; pressing the ceramics substrate , the Cu-layer , and the metal plate which were stacked in layers in a stacked direction at a pressure of 0.1 to 0.5 MPa (1 to 5 kgf/cm 2 ), and heating the ceramics substrate , the Cu-layer , and the metal plate ; forming a fusion metal layer at a boundary face between the ceramics substrate and the metal plate ; solidifying the fusion metal layer by cooling; and making Cu to be included into the metal plate adjacent to the joint interface between the ceramics substrate and the metal plate so that a Cu concentration close to the joint interface is in the range of 0.05 to 5 wt%, wherein the Cu concentration is the average value of five points measured in the range from the joint interface to 50 μm from the joint interface by use of an EPMA analyzation having a spot diameter of 30 μm. preparing a ceramics substrate , a metal plate composed of aluminum, and a Cu-layer having a thickness of 0.15 μm to 3 μm; stacking the ceramics substrate and the metal plate in layers with the Cu-layer interposed therebetween; pressing the ceramics substrate , the Cu-layer , and the metal plate which were stacked in layers in a stacked direction at a pressure of 0.1 to 0.5 MPa (1 to 5 kgf/cm 2 ), and heating the ceramics substrate , the Cu-layer , and the metal plate ; forming a fusion metal layer at a boundary face between the ceramics substrate and the metal plate ; solidifying the fusion metal layer by cooling; and making Cu to be included into the metal plate adjacent to the joint interface between the ceramics substrate and the metal plate so that a Cu concentration close to the joint interface is in the range of 0.05 to 5 wt%, wherein the Cu concentration is the average value of five points measured in the range from the joint interface to 50 μm from the joint interface by use of an EPMA analyzation having a spot diameter of 30 μm.
A computer-implemented method for operating an autonomous driving vehicle (ADV), the method comprising: detecting a first obstacle colliding with the ADV; determining whether a time duration when the ADV is to be in collision with a second obstacle is more than a predetermined time threshold; determining a minimum deceleration to be zero in response to determining that the time duration when the ADV is to be in collision with a second obstacle is more than a predetermined time threshold, wherein the minimum deceleration is required for the ADV to avoid colliding with a second obstacle within a predetermined proximity of a moving direction; generating a brake command of "zero" based on the minimum deceleration; and applying the brake command of "zero" to the ADV, such that the ADV slides accordingly to absorb the energy from a collision with the first obstacle and softens an impact of the collision with the first obstacle. detecting a first obstacle colliding with the ADV; determining whether a time duration when the ADV is to be in collision with a second obstacle is more than a predetermined time threshold; determining a minimum deceleration to be zero in response to determining that the time duration when the ADV is to be in collision with a second obstacle is more than a predetermined time threshold, wherein the minimum deceleration is required for the ADV to avoid colliding with a second obstacle within a predetermined proximity of a moving direction; generating a brake command of "zero" based on the minimum deceleration; and applying the brake command of "zero" to the ADV, such that the ADV slides accordingly to absorb the energy from a collision with the first obstacle and softens an impact of the collision with the first obstacle.
A method of producing a pre-bonded multilayer film for covering a bone defect site , wherein the film includes at least one substantially completely bioresorbable cover layer , wherein the at least one cover layer is applied to a thermally deformable and substantially completely bioresorbable molding layer , wherein the at least one cover layer is thermally and/or mechanically connected, preferably pressed, to the molding layer , characterised in that - arranged on the molding layer are spike-like projections , wherein by applying the at least one cover layer to the molding layer the projections are pressed into the at least one cover layer and/or passed through the at least one cover layer , and/or - prior to the thermal and/or mechanical connection being made substantially completely bioresorbable connecting devices , preferably rivets or pins, are passed through the molding layer and the at least one cover layer . - arranged on the molding layer are spike-like projections , wherein by applying the at least one cover layer to the molding layer the projections are pressed into the at least one cover layer and/or passed through the at least one cover layer , and/or - prior to the thermal and/or mechanical connection being made substantially completely bioresorbable connecting devices , preferably rivets or pins, are passed through the molding layer and the at least one cover layer .
An integrated semiconductor laser device comprising: a semiconductor laser ; a semiconductor optical amplifier configured to amplify output laser light of the semiconductor laser , and an optical waveguide optically connected to the semiconductor laser and configured to guide the output laser light of the semiconductor laser, wherein the semiconductor laser and the semiconductor optical amplifier are horizontally integrated on a same surface of a semiconductor substrate , the semiconductor laser includes a first active layer, the semiconductor optical amplifier includes a second active layer, the first active layer and the second active layer each include a multiple quantum well structure including quantum wells, , and the second active layer includes a larger number of quantum wells than the first active layer. a semiconductor laser ; a semiconductor optical amplifier configured to amplify output laser light of the semiconductor laser , and an optical waveguide optically connected to the semiconductor laser and configured to guide the output laser light of the semiconductor laser, wherein the semiconductor laser and the semiconductor optical amplifier are horizontally integrated on a same surface of a semiconductor substrate , the semiconductor laser includes a first active layer, the semiconductor optical amplifier includes a second active layer, the first active layer and the second active layer each include a multiple quantum well structure including quantum wells, , and the second active layer includes a larger number of quantum wells than the first active layer.
A wireless communication device configured for receiving multiple signals, comprising: a single-chip carrier aggregation receiver architecture that comprises: a first antenna ; a second antenna ; a third antenna ; a fourth antenna ; and a transceiver chip , wherein the transceiver chip comprises multiple carrier aggregation receivers , configured to receive a primary signal comprising a first and a second carrier, the multiple carrier aggregation receivers comprising a first receiver , a second receiver , a third receiver and a fourth receiver , the transceiver chip further comprising a fifth receiver , wherein the first antenna is coupled to the first receiver , the second antenna is coupled to the second receiver , the third antenna is coupled to the fourth receiver , the fourth antenna is coupled to the fifth receiver , wherein said fourth receiver is further configurable to receive a first secondary signal and the fifth receiver is configured to receive a second secondary signal whereby the fourth receiver is reused for secondary diversity such that the single-chip carrier aggregation receiver architecture operates in non-simultaneous hybrid dual receiver, SHDR, mode and/or in non-carrier aggregation mode, wherein the secondary diversity is obtained when multiple receivers of the transceiver chip are configured to process a secondary signal. a first antenna ; a second antenna ; a third antenna ; a fourth antenna ; and a transceiver chip , wherein the transceiver chip comprises multiple carrier aggregation receivers , configured to receive a primary signal comprising a first and a second carrier, the multiple carrier aggregation receivers comprising a first receiver , a second receiver , a third receiver and a fourth receiver , the transceiver chip further comprising a fifth receiver , wherein the first antenna is coupled to the first receiver , the second antenna is coupled to the second receiver , the third antenna is coupled to the fourth receiver , the fourth antenna is coupled to the fifth receiver , wherein said fourth receiver is further configurable to receive a first secondary signal and the fifth receiver is configured to receive a second secondary signal whereby the fourth receiver is reused for secondary diversity such that the single-chip carrier aggregation receiver architecture operates in non-simultaneous hybrid dual receiver, SHDR, mode and/or in non-carrier aggregation mode, wherein the secondary diversity is obtained when multiple receivers of the transceiver chip are configured to process a secondary signal.
A computer program for performing a homology analysis for analyzing a captured image of tissue for the presence of cancer, the computer program comprising instructions which, when executed on a computer, cause said computer to perform: a) a binarizing step (S2) of carrying out a binarizing process a plurality of times with respect to a single captured image so as to generate a plurality of binarized images, the binarizing process being carried out in such a manner that each time a binarization reference value (Th1, Th2) is varied, the binarizing process is carried out; b) a region number calculating step (S3) of calculating a region number (b1), which indicates the number of hole-shaped regions, with respect to each of the plurality of binarized images which have been generated in the binarizing step (S2); and c) a cancer determining step (S4) of determining a type of cancer occurring in a cell included in the tissue, wherein feature values (Th2, size of cell nucleus, Th1, b1max) are extracted from the captured image or the binarized images and wherein the type of cancer is determined by comparing the feature values to corresponding predetermined threshold values (50, 60 or 48, 30, 25), the feature values including a binarization reference value (Th2) which has been applied when generating that one of the plurality of binarized images with respect to which the region number (b1) has a given value . a) a binarizing step (S2) of carrying out a binarizing process a plurality of times with respect to a single captured image so as to generate a plurality of binarized images, the binarizing process being carried out in such a manner that each time a binarization reference value (Th1, Th2) is varied, the binarizing process is carried out; b) a region number calculating step (S3) of calculating a region number (b1), which indicates the number of hole-shaped regions, with respect to each of the plurality of binarized images which have been generated in the binarizing step (S2); and c) a cancer determining step (S4) of determining a type of cancer occurring in a cell included in the tissue, wherein feature values (Th2, size of cell nucleus, Th1, b1max) are extracted from the captured image or the binarized images and wherein the type of cancer is determined by comparing the feature values to corresponding predetermined threshold values (50, 60 or 48, 30, 25), the feature values including a binarization reference value (Th2) which has been applied when generating that one of the plurality of binarized images with respect to which the region number (b1) has a given value .
A miticide, comprising: an ethoxy-modified trisiloxane and sodium dioctyl sulfosuccinate, characterized in that , the mass ratio of the ethoxy-modified trisiloxane to the sodium dioctyl sulfosuccinate ranges from (1:0.8) to (1:1.2).
A computer-implemented method (100; 300) for individual action recognition without using explicit body key point coordinates or skeleton data, the method (100; 300) comprising: obtaining (110; 310) one or more images (410a, 410b, 410c; 510) showing at least a portion of one or more individuals; generating one or more implicit representations of one or more individual poses based at least in part on the one or more images (410a, 410b, 410c; 510), wherein the one or more implicit representations of one or more individual poses comprise one or more mid-level feature vectors generated by a part of a first neural network; and determining at least one individual action by classifying at least one of the one or more implicit representations of one or more individual poses, without using explicit body key point coordinates or skeleton data, wherein the first neural network was initially trained for determining two-dimensional, 2D, and/or three-dimensional, 3D, poses of individuals, wherein the step of determining the at least one individual action by classifying at least one of the one or more implicit representations of one or more individual poses is performed by a second neural network, the second neural network being trained to classify the one or more feature vectors according to individual actions. obtaining (110; 310) one or more images (410a, 410b, 410c; 510) showing at least a portion of one or more individuals; generating one or more implicit representations of one or more individual poses based at least in part on the one or more images (410a, 410b, 410c; 510), wherein the one or more implicit representations of one or more individual poses comprise one or more mid-level feature vectors generated by a part of a first neural network; and determining at least one individual action by classifying at least one of the one or more implicit representations of one or more individual poses, without using explicit body key point coordinates or skeleton data, wherein the first neural network was initially trained for determining two-dimensional, 2D, and/or three-dimensional, 3D, poses of individuals, wherein the step of determining the at least one individual action by classifying at least one of the one or more implicit representations of one or more individual poses is performed by a second neural network, the second neural network being trained to classify the one or more feature vectors according to individual actions.