mhurhangee/patent-ind-claim-en huggingface dataset:
Polyolefin composition comprising a) 20-48 wt% of at least one heterophasic polypropylene copolymer with a melt flow rate MFR 2 (230°C, 2.16 kg, measured according to ISO 1133) of at least 40 g/10 min; b) 2-30 wt% of at least one polypropylene homopolymer with a melt flow rate MFR 2 (230°C, 2.16 kg, measured according to ISO 1133) of at least 400 g/10 min; and c) 40-60 wt%, of a blend (A) of recycled plastic material comprising polypropylene and polyethylene in a ratio between 3 : 7 and 12:1, which is recovered from a waste plastic material derived from post-consumer and/or post-industrial waste, with a melt flow rate MFR 2 (230°C, 2.16 kg, measured according to ISO 1133) of at least 5 g/10 min, characterized by a melt flow rate MFR 2 (230°C, 2.16 kg, measured according to ISO 1133) of at least 20 g/10min. a) 20-48 wt% of at least one heterophasic polypropylene copolymer with a melt flow rate MFR 2 (230°C, 2.16 kg, measured according to ISO 1133) of at least 40 g/10 min; b) 2-30 wt% of at least one polypropylene homopolymer with a melt flow rate MFR 2 (230°C, 2.16 kg, measured according to ISO 1133) of at least 400 g/10 min; and c) 40-60 wt%, of a blend (A) of recycled plastic material comprising polypropylene and polyethylene in a ratio between 3 : 7 and 12:1, which is recovered from a waste plastic material derived from post-consumer and/or post-industrial waste, with a melt flow rate MFR 2 (230°C, 2.16 kg, measured according to ISO 1133) of at least 5 g/10 min, characterized by a melt flow rate MFR 2 (230°C, 2.16 kg, measured according to ISO 1133) of at least 20 g/10min.
A method of selectively patterning a device component, the method comprising: forming on a surface of a substrate a partial layer of resist which leaves at least one area of the substrate surface exposed, the partial resist layer having a top-surface lying substantially parallel to the substrate's surface and an inner side-surface extending from the top-surface to the substrate's surface, so as to create a boundary of the exposed area where the side-surface meets the substrate's surface; forming a shadow wall in the exposed area from wall material deposited on the inner side-surface of the resist layer, the wall material extending to the exposed area of the substrate surface for supporting the shadow wall when the resist layer is removed which surrounds it; removing the partial resist layer from the substrate thereby leaving the shadow wall supported by the substrate; and using a deposition beam to selectively deposit a layer of deposition material on a device component supported by the substrate adjacent to the shadow wall, the deposition beam having a non-zero angle of incidence relative to a normal to the surface of the substrate and an orientation in the plane of the substrate's surface, such that the shadow wall prevents deposition on a surface portion of the device component within a shadow region defined by the shadow wall. forming on a surface of a substrate a partial layer of resist which leaves at least one area of the substrate surface exposed, the partial resist layer having a top-surface lying substantially parallel to the substrate's surface and an inner side-surface extending from the top-surface to the substrate's surface, so as to create a boundary of the exposed area where the side-surface meets the substrate's surface; forming a shadow wall in the exposed area from wall material deposited on the inner side-surface of the resist layer, the wall material extending to the exposed area of the substrate surface for supporting the shadow wall when the resist layer is removed which surrounds it; removing the partial resist layer from the substrate thereby leaving the shadow wall supported by the substrate; and using a deposition beam to selectively deposit a layer of deposition material on a device component supported by the substrate adjacent to the shadow wall, the deposition beam having a non-zero angle of incidence relative to a normal to the surface of the substrate and an orientation in the plane of the substrate's surface, such that the shadow wall prevents deposition on a surface portion of the device component within a shadow region defined by the shadow wall.
A wireless communication method, the method performed by a terminal, the method comprising: performing a first determination, by a terminal configured with a number of downlink cells, for at least a first scheduling cell that supports an enhanced physical downlink control channel monitoring capability, of a first maximum number of physical downlink control channel, PDCCH, detection candidate sets and a second maximum number of non-overlapping control channel elements, CCEs, for a first subcarrier spacing and a span pattern that is determined based on (X, Y), wherein an interval between starts of two spans is not less than X symbols, wherein Y indicates a number of symbols in a span, and wherein the first maximum number and the second maximum number are determined for each span in a plurality of spans included in a time slot; performing a second determination, by the terminal, for at least a second scheduling cell that does not support the enhanced physical downlink control channel monitoring capability, of a third maximum number of PDCCH detection candidate sets and a fourth maximum number of non-overlapping CCEs for a second subcarrier spacing, wherein the third maximum number and the fourth maximum number are determined for each slot in a plurality of slots; and performing, by the terminal, a PDCCH monitoring operation related to a monitoring opportunity using the first maximum number, the second maximum number, the third maximum number, and the fourth maximum number. performing a first determination, by a terminal configured with a number of downlink cells, for at least a first scheduling cell that supports an enhanced physical downlink control channel monitoring capability, of a first maximum number of physical downlink control channel, PDCCH, detection candidate sets and a second maximum number of non-overlapping control channel elements, CCEs, for a first subcarrier spacing and a span pattern that is determined based on (X, Y), wherein an interval between starts of two spans is not less than X symbols, wherein Y indicates a number of symbols in a span, and wherein the first maximum number and the second maximum number are determined for each span in a plurality of spans included in a time slot; performing a second determination, by the terminal, for at least a second scheduling cell that does not support the enhanced physical downlink control channel monitoring capability, of a third maximum number of PDCCH detection candidate sets and a fourth maximum number of non-overlapping CCEs for a second subcarrier spacing, wherein the third maximum number and the fourth maximum number are determined for each slot in a plurality of slots; and performing, by the terminal, a PDCCH monitoring operation related to a monitoring opportunity using the first maximum number, the second maximum number, the third maximum number, and the fourth maximum number.
Power tool, in particular a hand-held power tool, comprising at least one housing unit (14a; 14b; 14c; 14e), comprising at least one drive unit (16a; 16b; 16c; 16e) arranged within the housing unit (14a; 14b; 14c; 14e), and comprising at least one separating unit (22a; 22b; 22c; 22e) that is designed to divide at least one fluid stream (24a; 24b; 24c; 24e) conducted through the housing unit (14a; 14b; 14c; 14e) into at least two sub-streams (26a, 28a; 26b, 28b; 26c, 28c; 26e, 28e), in particular in dependence on a foreign body density, wherein one sub-stream (26a; 26b; 26c; 26e) of the sub-streams (26a, 28a; 26b, 28b; 26c, 28c; 26e, 28e) has a higher foreign body density in comparison with another sub-stream (28a; 28b; 28c; 28e) of the sub-streams (26a, 28a; 26b, 28b; 26c, 28c; 26e, 28e), the power tool comprises at least one fluid cooling unit (30a; 30b; 30c; 30e) that is designed to cool the drive unit (16a; 16b; 16c; 16e) by means of the at least two sub-streams (26a, 28a; 26b, 28b; 26c, 28c; 26e, 28e), characterized in that the separating unit comprises at least one separating element which is realized as a channel element of the fluid cooling unit, wherein the separating element is realized as a helical and/or spiral shaped part.
A cab roof structure comprising a roof carline , and further comprising: at least one roof connecting beam disposed on the roof carline ; and at least two aluminum honeycomb panels , one roof connecting beam is disposed between every two aluminum honeycomb panels , and each aluminum honeycomb panel is fixedly connected to a left or right side of the roof connecting beam ; whereby the aluminum honeycomb panel disposed on a left side of the roof connecting beam is referred to as a first aluminum honeycomb panel , and the aluminum honeycomb panel disposed on a right side of the roof connecting beam is referred to as a second aluminum honeycomb panel ; and a first protrusion is provided on an upper surface of the roof connecting beam a first shoulder configured to bear the first aluminum honeycomb panel and a second shoulder configured to bear the second aluminum honeycomb panel are respectively provided on left and right sides of the first protrusion ; characterised in that a second protrusion is provided on an upper end surface of the first protrusion , and a third shoulder configured to connect an upper panel of the first aluminum honeycomb panel and a fourth shoulder configured to connect an upper panel of the second aluminum honeycomb panel are respectively provided on left and right sides of the second protrusion . at least one roof connecting beam disposed on the roof carline ; and at least two aluminum honeycomb panels , one roof connecting beam is disposed between every two aluminum honeycomb panels , and each aluminum honeycomb panel is fixedly connected to a left or right side of the roof connecting beam ; whereby the aluminum honeycomb panel disposed on a left side of the roof connecting beam is referred to as a first aluminum honeycomb panel , and the aluminum honeycomb panel disposed on a right side of the roof connecting beam is referred to as a second aluminum honeycomb panel ; and a first protrusion is provided on an upper surface of the roof connecting beam a first shoulder configured to bear the first aluminum honeycomb panel and a second shoulder configured to bear the second aluminum honeycomb panel are respectively provided on left and right sides of the first protrusion ; characterised in that a second protrusion is provided on an upper end surface of the first protrusion , and a third shoulder configured to connect an upper panel of the first aluminum honeycomb panel and a fourth shoulder configured to connect an upper panel of the second aluminum honeycomb panel are respectively provided on left and right sides of the second protrusion .
An implantable heart assist system, comprising: a pumping chamber formed of a flexible material and being adapted to be placed in fluid connection with the thoracic aorta; and a pump system comprising a first rigid member , a second rigid member spaced from the first rigid member so that at least a portion of the pumping chamber may be positioned between the first rigid member and the second rigid member , a drive system comprising a motor in connection with the first rigid member and the second rigid member and an actuating mechanism to convert rotary motion of the motor to linear motion to cause the second rigid member to move toward the first rigid member or away from the first rigid member , and a controller in operative connection with the drive system and controlling the motor , wherein movement of the second rigid member toward the first rigid member results in compression of the pumping chamber and movement of the second rigid member away from the first rigid member causes expansion of the pumping chamber , wherein the first rigid member is adapted to be positioned adjacent the chest wall posterior to the thoracic aorta and the second rigid member is adapted to be positioned adjacent the surface of the left lung. a pumping chamber formed of a flexible material and being adapted to be placed in fluid connection with the thoracic aorta; and a pump system comprising a first rigid member , a second rigid member spaced from the first rigid member so that at least a portion of the pumping chamber may be positioned between the first rigid member and the second rigid member , a drive system comprising a motor in connection with the first rigid member and the second rigid member and an actuating mechanism to convert rotary motion of the motor to linear motion to cause the second rigid member to move toward the first rigid member or away from the first rigid member , and a controller in operative connection with the drive system and controlling the motor , wherein movement of the second rigid member toward the first rigid member results in compression of the pumping chamber and movement of the second rigid member away from the first rigid member causes expansion of the pumping chamber , wherein the first rigid member is adapted to be positioned adjacent the chest wall posterior to the thoracic aorta and the second rigid member is adapted to be positioned adjacent the surface of the left lung.
A flat heat transfer tube used for a cross fin tube type heat exchanger including the flat heat transfer tube having a bending portion and a plurality of holes extending through in a direction parallel with an axis direction of the flat heat transfer tube , and a plurality of plate fins bonded by welding to the flat heat transfer tube , wherein an interval between an outer surface of the flat heat transfer tube and an inner surface of at least one of the plurality of holes of a portion which is to be curved with a small curvature during bending is larger than an interval between an outer surface of the flat heat transfer tube and an inner surface of at least one of the plurality of holes of a portion which is to be curved with a large curvature during bending in a cross section of a portion of the flat heat transfer tube which corresponds to the bending portion before bending, and an interval t of a portion which is curved with the smallest curvature during bending is determined based on a minimum interval t0 which is required after bending, an elongation rate a, and a change rate σ ratio of the tensile strength between before and after welding calculated by dividing a tensile strength after welding by a tensile strength before welding, characterized in that the interval t of the portion which is curved with the smallest curvature during bending, the minimum interval t0, the elongation rate a, and the change rate σ ratio have a relationship of the following equation: t = t 0 × a × 1 σ ratio and the elongation rate a, a length L in a direction of the cross section of the flat heat transfer tube in which the curvature varies during bending of a length i) in a long diameter direction; or ii) in a short diameter direction; of the cross section of the flat heat transfer tube , and a radius of curvature r of a portion which is curved with the largest curvature during bending have a relationship of the following equation: a = r + L r + L / 2 . i) in a long diameter direction; or ii) in a short diameter direction; of the cross section of the flat heat transfer tube , and a radius of curvature r of a portion which is curved with the largest curvature during bending have a relationship of the following equation: a = r + L r + L / 2 .
A mobile manipulation system comprising: a mobile base assembly including a first computing device , at least two drive wheel including a first drive wheel coupled to a first actuator and a second drive wheel coupled to a second actuator , and a first sensor; an actuation assembly comprising a first chain cartridge including a drive chain engageably coupled to a drive mechanism of a third actuator , the drive chain including a first plurality of inter-connected links conveying at least one first cable within a first interior space of each of the first plurality of inter-connected links, and a telescopic structure including a plurality of segments configured to extend and retract telescopically with respect to one another and conveying the drive chain therein, wherein a first end of the drive chain is coupled to a distal segment of the plurality of segments; a mast attached to the mobile base assembly, wherein the actuation assembly translates vertically along the mast; a head assembly atop the mast and including a first collection of sensors; and a manipulation payload coupled to the distal segment of the plurality of segments a mobile base assembly including a first computing device , at least two drive wheel including a first drive wheel coupled to a first actuator and a second drive wheel coupled to a second actuator , and a first sensor; an actuation assembly comprising a first chain cartridge including a drive chain engageably coupled to a drive mechanism of a third actuator , the drive chain including a first plurality of inter-connected links conveying at least one first cable within a first interior space of each of the first plurality of inter-connected links, and a telescopic structure including a plurality of segments configured to extend and retract telescopically with respect to one another and conveying the drive chain therein, wherein a first end of the drive chain is coupled to a distal segment of the plurality of segments; a first chain cartridge including a drive chain engageably coupled to a drive mechanism of a third actuator , the drive chain including a first plurality of inter-connected links conveying at least one first cable within a first interior space of each of the first plurality of inter-connected links, and a telescopic structure including a plurality of segments configured to extend and retract telescopically with respect to one another and conveying the drive chain therein, wherein a first end of the drive chain is coupled to a distal segment of the plurality of segments; a mast attached to the mobile base assembly, wherein the actuation assembly translates vertically along the mast; a head assembly atop the mast and including a first collection of sensors; and a manipulation payload coupled to the distal segment of the plurality of segments
Apparatus for installing a seat arrangement in a vehicle, wherein the apparatus has a frame structure , able to be fitted on the top side of a vehicle floor , having frame portions that are oriented at an angle to one another, wherein the frame structure comprises a base frame for fixing the frame structure to the vehicle floor , wherein the base frame is configured in a manner prepared with fastening means such that the base frame is able to be fastened at fastening points predefined in the vehicle, characterized in that the base frame has at least two part-frames , wherein a part frame has a long-side outer edge (9, 10; 13, 14) and a broadside outer edge (11, 12; 15, 16) and the part-frames are matched such that an outer edge of one part-frame adjoins an outer edge of another part-frame and the two mutually adjoining outer edges are connected together in order to form the base frame in the fitted state.
Electrical equipment item , having: - a high-voltage region , having: ∘ a cable connection space for an electrical cable bushing , and o a capacitive coupling electrode or an inductive coupling, designed to output couple a first frequency range, wherein the capacitive coupling electrode or the inductive coupling is connected to the electrical cable bushing , - a low-voltage region , having: ∘ a system for measuring high-frequency currents , designed to output couple a second frequency range and to carry out voltage detection in the second frequency range, ∘ a voltage indicator system , designed to measure a third frequency range and to carry out voltage detection in the third frequency range, and - the electrical cable bushing , having a first connection and a second connection, wherein the first connection is arranged in the cable connection space , wherein the second connection is arranged in the low-voltage region , and wherein the electrical cable bushing runs from the cable connection space to the system for measuring high-frequency currents and to the voltage indicator system . - a high-voltage region , having: ∘ a cable connection space for an electrical cable bushing , and o a capacitive coupling electrode or an inductive coupling, designed to output couple a first frequency range, wherein the capacitive coupling electrode or the inductive coupling is connected to the electrical cable bushing , ∘ a cable connection space for an electrical cable bushing , and o a capacitive coupling electrode or an inductive coupling, designed to output couple a first frequency range, - a low-voltage region , having: ∘ a system for measuring high-frequency currents , designed to output couple a second frequency range and to carry out voltage detection in the second frequency range, ∘ a voltage indicator system , designed to measure a third frequency range and to carry out voltage detection in the third frequency range, and ∘ a system for measuring high-frequency currents , designed to output couple a second frequency range and to carry out voltage detection in the second frequency range, ∘ a voltage indicator system , designed to measure a third frequency range and to carry out voltage detection in the third frequency range, - the electrical cable bushing , having a first connection and a second connection, wherein the first connection is arranged in the cable connection space , wherein the second connection is arranged in the low-voltage region , and wherein the electrical cable bushing runs from the cable connection space to the system for measuring high-frequency currents and to the voltage indicator system .
A method comprising: receiving an HTTP request for a webpage from a user device , the HTTP request comprising metadata standard to a communications protocol of the HTTP request that includes data related to one or more specifications of the user device , wherein the metadata is part of an HTTP user-agent string, wherein the HTTP user-agent string includes the specifications of the user device ; extracting a serial number of the user device from the HTTP user-agent string; looking up the serial number in a database and returning the specifications of the user device associated with the serial number; determining a sales price for the user device based on the one or more specifications of the user device ; determining a user profile for a user of the user device based on the metadata, creating a listing for selling the user device based on preferences associated with the user profile, the sales price and the specifications of the user device . receiving an HTTP request for a webpage from a user device , the HTTP request comprising metadata standard to a communications protocol of the HTTP request that includes data related to one or more specifications of the user device , wherein the metadata is part of an HTTP user-agent string, wherein the HTTP user-agent string includes the specifications of the user device ; extracting a serial number of the user device from the HTTP user-agent string; looking up the serial number in a database and returning the specifications of the user device associated with the serial number; determining a sales price for the user device based on the one or more specifications of the user device ; determining a user profile for a user of the user device based on the metadata, creating a listing for selling the user device based on preferences associated with the user profile, the sales price and the specifications of the user device .