mhurhangee/ep-ind-claims huggingface dataset:
A load cell support structure for a scale (300, 400; 500) comprising: - a base support member (304; 404; 504) for mounting at least one load cell (312; 512); - a load bearing member (302; 402; 502) movable with respect to said base support member (304; 404; 504) and having an upper surface for receiving a load; - a load cell engaging member adapted to operatively engage at least one load cell (312; 512) in a direction of a load applied to said upper surface of said load bearing member (302; 402; 502); - a load transfer member integrally formed with said load bearing member (302; 402; 502) and operatively coupled to said load cell engaging member so as to transfer a load from said upper surface to at least one load cell (312; 512) via said load cell engaging member; - at least one biasing member (306; 406; 506); - at least one pivot member (316; 416; 516) operatively engaging said load transfer member and said load cell engaging member, so as to allow pivotal movement of said load transfer member with respect to said load cell engaging member about said pivot member (316; 416; 516) and in at least one plane parallel to the direction of a load applied to said upper surface, wherein the at least one biasing member (306; 406; 506) is adapted to urge said load transfer member towards said load cell engaging member with a predetermined biasing force and in a direction opposing a load applied to said upper surface of said load bearing member (302; 402; 502), wherein the load cell support structure comprises one biasing member and one pivot member, or a plurality of biasing members (306; 406) and a plurality of pivot members (316; 416). - a base support member (304; 404; 504) for mounting at least one load cell (312; 512); - a load bearing member (302; 402; 502) movable with respect to said base support member (304; 404; 504) and having an upper surface for receiving a load; - a load cell engaging member adapted to operatively engage at least one load cell (312; 512) in a direction of a load applied to said upper surface of said load bearing member (302; 402; 502); - a load transfer member integrally formed with said load bearing member (302; 402; 502) and operatively coupled to said load cell engaging member so as to transfer a load from said upper surface to at least one load cell (312; 512) via said load cell engaging member; - at least one biasing member (306; 406; 506); - at least one pivot member (316; 416; 516) operatively engaging said load transfer member and said load cell engaging member, so as to allow pivotal movement of said load transfer member with respect to said load cell engaging member about said pivot member (316; 416; 516) and in at least one plane parallel to the direction of a load applied to said upper surface,
A gas turbine engine defining a centerline axis, the gas turbine engine comprising: a compressor section; a heat exchanger; a turbine section; a combustor assembly comprising a volute walled enclosure defining a spiral scroll pitch axis disposed at least partially circumferentially around a centerline axis of the gas turbine engine, wherein the walled enclosure is defined around the pitch axis, the walled enclosure defining a combustion chamber therewithin and an outer casing surrounding the volute walled enclosure; and a plurality of inlet members defining a plurality of airfoils positioned around the centerline axis, wherein the plurality of members define an inlet opening at the outer casing in fluid communication with an upstream end of the walled enclosure; and wherein a primary flowpath extends from the compressor section through the heat exchanger and into the inlet opening at the outer casing entering the combustion chamber and exiting through the turbine section. a compressor section; a heat exchanger; a turbine section; a combustor assembly comprising a volute walled enclosure defining a spiral scroll pitch axis disposed at least partially circumferentially around a centerline axis of the gas turbine engine, wherein the walled enclosure is defined around the pitch axis, the walled enclosure defining a combustion chamber therewithin and an outer casing surrounding the volute walled enclosure; and a plurality of inlet members defining a plurality of airfoils positioned around the centerline axis, wherein the plurality of members define an inlet opening at the outer casing in fluid communication with an upstream end of the walled enclosure; and wherein a primary flowpath extends from the compressor section through the heat exchanger and into the inlet opening at the outer casing entering the combustion chamber and exiting through the turbine section.
A razor assembly comprising: a blade assembly configured to removably connect with an attachment mechanism; a handle having a distal end configured to removably connect with the attachment mechanism providing a first pivotal movement between the handle and the attachment mechanism relative to a central axis (A-A) of the handle; wherein the attachment mechanism comprises a connection portion configured to provide a second pivotal movement between the blade assembly and the attachment mechanism, characterized in that one of the handle distal end and the attachment mechanism includes a recess and a track including at least one guide rail, and the other of the handle distal end and the attachment mechanism comprises a return mechanism configured to connect to the recess so as to provide a return force against the first pivotal movement and a channel configured to releasably connect with the track and guide rail so as to provide the first pivotal movement between the handle and the attachment mechanism. a blade assembly configured to removably connect with an attachment mechanism; a handle having a distal end configured to removably connect with the attachment mechanism providing a first pivotal movement between the handle and the attachment mechanism relative to a central axis (A-A) of the handle; wherein the attachment mechanism comprises a connection portion configured to provide a second pivotal movement between the blade assembly and the attachment mechanism, characterized in that one of the handle distal end and the attachment mechanism includes a recess and a track including at least one guide rail, and the other of the handle distal end and the attachment mechanism comprises a return mechanism configured to connect to the recess so as to provide a return force against the first pivotal movement and a channel configured to releasably connect with the track and guide rail so as to provide the first pivotal movement between the handle and the attachment mechanism.
Optical compensator for liquid crystal displays comprising - at least one O plate retarder (3, 3'), and - at least one a plate retarder, characterised in that said A plate retarder is twisted A plate retarder (6,6') with a twist angle φ of more than 90°. - at least one O plate retarder (3, 3'), and - at least one a plate retarder, characterised in that said A plate retarder is twisted A plate retarder (6,6') with a twist angle φ of more than 90°.
Continuous method for the sterilisation of a dermo-cosmetic product wherein the flow rate is maintained during steps i) to iii), the dermo-cosmetic product comprising an emulsive base comprising at least a fatty phase and an aqueous phase, as well as an acid polymer gelling agent, comprising the steps of: i. emulsifying the emulsive base, comprising the gelling agent in the non-neutralised state, at a temperature T1, so as to obtain a pre-emulsion; ii. sterilising the pre-emulsion by means of a thermal process capable of achieving a reduction of at least 15 Log of the number of germs in a unit of volume of the treated pre-emulsion; iii. finalising the product in a sterile mixing station at a temperature equal to or less than T1, the finalising step comprising the neutralisation of the gelling agent so as to obtain the final viscosity and stability of the product. i. emulsifying the emulsive base, comprising the gelling agent in the non-neutralised state, at a temperature T1, so as to obtain a pre-emulsion; ii. sterilising the pre-emulsion by means of a thermal process capable of achieving a reduction of at least 15 Log of the number of germs in a unit of volume of the treated pre-emulsion; iii. finalising the product in a sterile mixing station at a temperature equal to or less than T1, the finalising step comprising the neutralisation of the gelling agent so as to obtain the final viscosity and stability of the product.
An apparatus for correcting a medical image, the apparatus comprising: a processor configured to: extract, among a plurality of 2-dimensional image frames that form a 3-dimensional image, at least one reference image frame usable for correcting a boundary of at least one lesion; set, in the at least one reference image frame, a boundary of at least one lesion based on at least one pixel value that represents a characteristic of a lesion included in the at least one reference image frame; set, in at least one image frame from among a plurality of 2-dimensional image frames other than the at least one reference image frame, a boundary of at least one lesion based on the at least one pixel value; receive an input to correct the boundary of the at least one lesion in the at least one reference image frame; display a corrected boundary of the at least one lesion in the at least one reference image frame; and correct the boundary of the at least one lesion in the at least one image frame from among the plurality of 2-dimensional image frames other than the at least one reference image frame based on the corrected boundary of the at least one lesion in the at least one reference image frame. extract, among a plurality of 2-dimensional image frames that form a 3-dimensional image, at least one reference image frame usable for correcting a boundary of at least one lesion; set, in the at least one reference image frame, a boundary of at least one lesion based on at least one pixel value that represents a characteristic of a lesion included in the at least one reference image frame; set, in at least one image frame from among a plurality of 2-dimensional image frames other than the at least one reference image frame, a boundary of at least one lesion based on the at least one pixel value; receive an input to correct the boundary of the at least one lesion in the at least one reference image frame; display a corrected boundary of the at least one lesion in the at least one reference image frame; and correct the boundary of the at least one lesion in the at least one image frame from among the plurality of 2-dimensional image frames other than the at least one reference image frame based on the corrected boundary of the at least one lesion in the at least one reference image frame.
A method for making a packaging machine comprising the following steps: (a) attaching a packaging motor to a carrier, and (b) transferring an exogenous material into an inner compartment of the carrier to thereby form a packaging machine, wherein the carrier is a T4 bacteriophage capsid; wherein the T4 bacteriophage capsid is encoded by a nucleic acid comprising a mutation in gene 10 and gene 13; and wherein the mutation in gene 10 is a stop codon encoded at the position of residue Trp 430 and the mutation in gene 13 is a stop codon encoded at the position of residue Gln 39. (a) attaching a packaging motor to a carrier, and (b) transferring an exogenous material into an inner compartment of the carrier to thereby form a packaging machine,
A controller area network, CAN, node (104a, 104b, 104c, 104d) for implementing CAN communications using Ethernet, the CAN node (104a, 104b, 104c, 104d) comprising: a CAN module (210a, 210b, 210c, 210d) configured to generate a first CAN message, the first CAN message comprising a first identification, ID, of the CAN node (104a, 104b, 104c, 104d); an Ethernet adaptation module (208a, 208b, 208c, 208d) configured to generate a first Ethernet data packet based on the first CAN message and to provide the first Ethernet data packet to a transceiver for transmitting the first Ethernet data packet to a destination over an Ethernet link, wherein the Ethernet adaptation module (208a, 208b, 208c, 208d) is further configured to receive a second Ethernet data packet from the transceiver, the second Ethernet data packet being detected by the transceiver over the Ethernet link, the second Ethernet data packet comprising a second CAN message, the second CAN message comprising a second ID; wherein the Ethernet adaptation module (208a, 208b, 208c, 208d) is further configured to extract the second CAN message from the second Ethernet data packet; and wherein the CAN node (104a, 104b, 104c, 104d) further comprises a verification module (212a, 212b, 212c, 212d) configured to: compare the first ID to the second ID; if the first ID and the second ID match, determine that the transmission of the first Ethernet data packet was successful; and otherwise, determine that the transmission of the first Ethernet data packet was not successful. a CAN module (210a, 210b, 210c, 210d) configured to generate a first CAN message, the first CAN message comprising a first identification, ID, of the CAN node (104a, 104b, 104c, 104d); an Ethernet adaptation module (208a, 208b, 208c, 208d) configured to generate a first Ethernet data packet based on the first CAN message and to provide the first Ethernet data packet to a transceiver for transmitting the first Ethernet data packet to a destination over an Ethernet link, wherein the Ethernet adaptation module (208a, 208b, 208c, 208d) is further configured to receive a second Ethernet data packet from the transceiver, the second Ethernet data packet being detected by the transceiver over the Ethernet link, the second Ethernet data packet comprising a second CAN message, the second CAN message comprising a second ID; wherein the Ethernet adaptation module (208a, 208b, 208c, 208d) is further configured to extract the second CAN message from the second Ethernet data packet; and wherein the CAN node (104a, 104b, 104c, 104d) further comprises a verification module (212a, 212b, 212c, 212d) configured to: compare the first ID to the second ID; if the first ID and the second ID match, determine that the transmission of the first Ethernet data packet was successful; and otherwise, determine that the transmission of the first Ethernet data packet was not successful. compare the first ID to the second ID; if the first ID and the second ID match, determine that the transmission of the first Ethernet data packet was successful; and otherwise, determine that the transmission of the first Ethernet data packet was not successful.
A wear component, comprising: a base portion; and a tip portion including: a proximate end metallurgically bonded to the base portion at a base-tip interface; and a distal end defining an exterior surface of the wear component, wherein the base-tip interface has a generally parabolic cross-sectional profile. a base portion; and a tip portion including: a proximate end metallurgically bonded to the base portion at a base-tip interface; and a distal end defining an exterior surface of the wear component, a proximate end metallurgically bonded to the base portion at a base-tip interface; and a distal end defining an exterior surface of the wear component, wherein the base-tip interface has a generally parabolic cross-sectional profile.
An engineered fuel feed stock, comprising at least one component derived from a processed Municipal Solid Waste waste stream, the feed stock comprising a carbon content of between 70 weight-% and 80 weight -% determined in accordance with the American Society for Testing and Materials (ASTM) standards D3176 or D5373; a hydrogen content of between 5 weight-% and 10 weight-% determined in accordance with the ASTM standards D3176 or D5373, a moisture content between 5 weight-% and 20 weight-% determined in accordance with the ASTM standards D3302, D5142, or E939; a sulfur content of less than 2 weight-% determined in accordance with the ASTM standard D4239; an ash content of less than 5% determined in accordance with the ASTM standards E830 or D5142; wherein the feed stock contains no more than 0.01% of glass, metals, grit, and noncombustible waste and wherein the feed stock has an O/C ratio from 0.01 to 0.05. a carbon content of between 70 weight-% and 80 weight -% determined in accordance with the American Society for Testing and Materials (ASTM) standards D3176 or D5373; a hydrogen content of between 5 weight-% and 10 weight-% determined in accordance with the ASTM standards D3176 or D5373, a moisture content between 5 weight-% and 20 weight-% determined in accordance with the ASTM standards D3302, D5142, or E939; a sulfur content of less than 2 weight-% determined in accordance with the ASTM standard D4239; an ash content of less than 5% determined in accordance with the ASTM standards E830 or D5142;
Method for the manufacture of a head or base element for drinks packaging containers formed from a fibre moulding, comprising the following steps: - Dipping of a moulding screen arranged on a toolholder, said moulding screen extending along the outer contour of a moulding tool, into a fibre-containing pulp slurry in order to cover the moulding screen with fibre material, - Lifting of the toolholder in order to move the moulding screen covered with fibre material out of the pulp slurry completely, - Compression of the fibre material in the area of a peripheral edge of the moulding screen through expansion of a sleeve extending circumferentially around the moulding tool in the area of the peripheral edge of the moulding screen, - Relaxation of the pressure in the sleeve, - Removal of the fibre moulding from the moulding screen, - Transfer of the fibre moulding onto a press tool and - mechanical compacting of the fibre moulding on the press tool with a geometry corresponding to the fibre moulding. - Dipping of a moulding screen arranged on a toolholder, said moulding screen extending along the outer contour of a moulding tool, into a fibre-containing pulp slurry in order to cover the moulding screen with fibre material, - Lifting of the toolholder in order to move the moulding screen covered with fibre material out of the pulp slurry completely, - Compression of the fibre material in the area of a peripheral edge of the moulding screen through expansion of a sleeve extending circumferentially around the moulding tool in the area of the peripheral edge of the moulding screen, - Relaxation of the pressure in the sleeve, - Removal of the fibre moulding from the moulding screen, - Transfer of the fibre moulding onto a press tool and - mechanical compacting of the fibre moulding on the press tool with a geometry corresponding to the fibre moulding.
A thermal interface (108a, 108b, 208a, 208b, 400) comprising a shape memory material and a thermally-conductive material, wherein: the thermal interface is configured to be formed as a compressed thermal interface (108b, 208b) and as an expanded thermal interface (108a, 208a), wherein the compressed thermal interface is configured to partially fill a thermal gap (106, 206) between a first component (102, 202) and a second component (104, 204), and wherein the expanded thermal interface is configured to fill the thermal gap; the thermal interface is configured to be formed as the expanded thermal interface when the thermal interface remains below a glass transition temperature of the shape memory material, and the thermal interface is configured to be formed as the compressed thermal interface when the thermal interface is heated above the glass transition temperature; and the thermal interface forms a base ring with semicircular curved petals, wherein the petals are up against the base ring in the compressed thermal interface and the petals form a larger diameter circle in the expanded thermal interface. the thermal interface is configured to be formed as a compressed thermal interface (108b, 208b) and as an expanded thermal interface (108a, 208a), wherein the compressed thermal interface is configured to partially fill a thermal gap (106, 206) between a first component (102, 202) and a second component (104, 204), and wherein the expanded thermal interface is configured to fill the thermal gap; the thermal interface is configured to be formed as the expanded thermal interface when the thermal interface remains below a glass transition temperature of the shape memory material, and the thermal interface is configured to be formed as the compressed thermal interface when the thermal interface is heated above the glass transition temperature; and the thermal interface forms a base ring with semicircular curved petals, wherein the petals are up against the base ring in the compressed thermal interface and the petals form a larger diameter circle in the expanded thermal interface.
A system for laying bars, particularly for providing reinforced concrete structures, which comprises: - at least one first laying element (100, 300) which comprises a plurality of first fixing means (102, 302) which are distributed in an equidistant manner along the longitudinal extension of said first laying element (100, 300), said first fixing means (102, 302) being configured to receive and immobilize a first group (104, 304) of bars (103, 303), and - at least one second laying element (200, 400) which comprises a plurality of second fixing means (202, 402) which are distributed in an equidistant manner along the longitudinal extension of said second laying element (200, 400), said second fixing means (202, 402) being configured to receive and immobilize a second group (204, 404) of bars (203, 403), said second laying element (200, 400) being associable with said first laying element (100, 300) along a direction that is perpendicular to the direction of longitudinal extension of said first laying element (100, 300), so that said first group (104, 304) of bars (103, 303) and said second group (204, 404) of bars (203, 403) define a first reinforcement mesh, said first fixing means (102, 302) of said first laying element (100, 300) and said second fixing means (202, 402) of said second laying element (200, 400) comprising a seat for a bar (103, 103', 203, 303, 303', 403), which is defined by at least two side walls (13, 15) which are elastic and curved and are configured to retain said bar (103, 103', 203, 303, 303', 403) in said seat, said at least two side walls (13, 15) being adapted to accommodate and retain bars (103, 203, 303, 403) of different diameters, characterized in that the system further comprises a connecting element which comprises at least two fixing means which are configured to receive and immobilize at least two bars (103', 303') that belong to said first group (102, 302) of bars (103, 303) which is associated with said first laying element (100, 300), said connecting element comprising a seat for accommodating said second laying element (200, 400). - at least one first laying element (100, 300) which comprises a plurality of first fixing means (102, 302) which are distributed in an equidistant manner along the longitudinal extension of said first laying element (100, 300), said first fixing means (102, 302) being configured to receive and immobilize a first group (104, 304) of bars (103, 303), and - at least one second laying element (200, 400) which comprises a plurality of second fixing means (202, 402) which are distributed in an equidistant manner along the longitudinal extension of said second laying element (200, 400), said second fixing means (202, 402) being configured to receive and immobilize a second group (204, 404) of bars (203, 403), said second laying element (200, 400) being associable with said first laying element (100, 300) along a direction that is perpendicular to the direction of longitudinal extension of said first laying element (100, 300), so that said first group (104, 304) of bars (103, 303) and said second group (204, 404) of bars (203, 403) define a first reinforcement mesh,