mhurhangee/ep-ind-claims huggingface dataset:
Method for rapid diagnosis of cell viability comprising the following steps: - interacting an electromagnetic wave with at least one cell of a sample, - measuring at least one optical property of said cell, said at least one optical property being probed with said electromagnetic wave and said at least one optical property being the phase of an electromagnetic wave interacting with the at least one cell, the method being characterised by: - using temporally resolved measurements of said optical property to monitor a cell regulation behavior of the at least one cell, the cell regulation behavior being a cell mechanism activated to restore a homeostatic equilibrium of the cell after a perturbation of the cell environment, and - determining cell viability when a change in the measured optical property, due to a cell environment perturbation, is reversed indicating a restoration of cell homeostatic equilibrium by cell regulation. - interacting an electromagnetic wave with at least one cell of a sample, - measuring at least one optical property of said cell, said at least one optical property being probed with said electromagnetic wave and said at least one optical property being the phase of an electromagnetic wave interacting with the at least one cell, the method being characterised by: - using temporally resolved measurements of said optical property to monitor a cell regulation behavior of the at least one cell, the cell regulation behavior being a cell mechanism activated to restore a homeostatic equilibrium of the cell after a perturbation of the cell environment, and - determining cell viability when a change in the measured optical property, due to a cell environment perturbation, is reversed indicating a restoration of cell homeostatic equilibrium by cell regulation.
Method for operating a hand-held machine tool which can be connected to a tool, wherein a drive for driving the tool, a control device and at least one sensor apparatus are provided, wherein the sensor apparatus is designed to detect at least one linear acceleration value (a x, a y, a z) and in particular at least one rotational rate value (ω x, ω y, ω z), wherein the at least one sensor apparatus has a distance (D or r D) from a reference point associated with the machine tool or the tool that is greater than or equal to zero, wherein the method comprises the following steps: - detecting at least one linear acceleration value (a x, a y, a z) by means of the at least one sensor apparatus; - subtracting the gravitational acceleration from the at least one linear acceleration value (a x, a y, a z) to produce at least one adjusted linear acceleration value (a xkorr, a ykorr, a zkorr); - integrating the at least one adjusted linear acceleration value (a xkorr, a ykorr, a zkorr) to produce at least one speed value; - integrating the at least one speed value to produce at least one distance value (s x, s y, s z); - multiplying the at least one speed value by a time constant (τ) to produce at least one further distance value; - adding the at least one distance value to the at least one further distance value to produce at least one total distance value (s x, s y, s z); - filtering at least one of the linear acceleration values (a x, a y, a z, a xkorr, a ykorr, a zkorr) and/or at least one of the speed values; - comparing the at least one total distance value (s x, s y, s z) with a predefined limit value; and - initiating a predefined action when the at least one total distance value exceeds the defined limit value. - detecting at least one linear acceleration value (a x, a y, a z) by means of the at least one sensor apparatus; - subtracting the gravitational acceleration from the at least one linear acceleration value (a x, a y, a z) to produce at least one adjusted linear acceleration value (a xkorr, a ykorr, a zkorr); - integrating the at least one adjusted linear acceleration value (a xkorr, a ykorr, a zkorr) to produce at least one speed value; - integrating the at least one speed value to produce at least one distance value (s x, s y, s z); - multiplying the at least one speed value by a time constant (τ) to produce at least one further distance value; - adding the at least one distance value to the at least one further distance value to produce at least one total distance value (s x, s y, s z); - filtering at least one of the linear acceleration values (a x, a y, a z, a xkorr, a ykorr, a zkorr) and/or at least one of the speed values; - comparing the at least one total distance value (s x, s y, s z) with a predefined limit value; and - initiating a predefined action when the at least one total distance value exceeds the defined limit value.
An apparatus, comprising: an execution unit comprising a multiply add computation unit, a first ALU logic unit and a second ALU logic unit, the execution unit to perform: a first instruction, said first instruction being a multiply add instruction; a second instruction, said second instruction to perform parallel ALU operations with the first and second ALU logic units operating simultaneously to produce different respective output resultants of the second instruction; a third instruction, said third instruction to perform sequential ALU operations with one of the first and second ALU logic units operating from an output of the other of the first and second ALU logic units to determine an output resultant of the third instruction; a fourth instruction, said fourth instruction to perform an iterative divide operation in which the first ALU logic unit and the second ALU logic unit operate to determine first and second division resultant digit values. a first instruction, said first instruction being a multiply add instruction; a second instruction, said second instruction to perform parallel ALU operations with the first and second ALU logic units operating simultaneously to produce different respective output resultants of the second instruction; a third instruction, said third instruction to perform sequential ALU operations with one of the first and second ALU logic units operating from an output of the other of the first and second ALU logic units to determine an output resultant of the third instruction; a fourth instruction, said fourth instruction to perform an iterative divide operation in which the first ALU logic unit and the second ALU logic unit operate to determine first and second division resultant digit values.
A galley cart stowage system for stowing galley carts in a galley of an aircraft, the galley cart stowage system comprising: a lower cart compartment defining a lower galley cart cavity configured to receive a first galley cart of the galley carts; an upper cart compartment located above the lower cart compartment, the upper cart compartment defining an upper galley cart cavity configured to receive a second galley cart of the galley carts; a vertical conveyance device extending between the lower cart compartment and the upper cart compartment to move the second galley cart between the lower cart compartment and the upper cart compartment; and a galley workspace having a workspace volume located above the lower cart compartment and located below the upper cart compartment, the galley workspace having a countertop, the countertop movable between a deployed position and a clearance position, the countertop located between the lower cart compartment and the upper cart compartment to block movement of the second galley cart between the lower cart compartment and the upper cart compartment in the deployed position, the countertop moved to the clearance position to form an opening between the lower cart compartment and the upper cart compartment to allow movement of the second galley cart between the lower cart compartment and the upper cart compartment. a lower cart compartment defining a lower galley cart cavity configured to receive a first galley cart of the galley carts; an upper cart compartment located above the lower cart compartment, the upper cart compartment defining an upper galley cart cavity configured to receive a second galley cart of the galley carts; a vertical conveyance device extending between the lower cart compartment and the upper cart compartment to move the second galley cart between the lower cart compartment and the upper cart compartment; and a galley workspace having a workspace volume located above the lower cart compartment and located below the upper cart compartment, the galley workspace having a countertop, the countertop movable between a deployed position and a clearance position, the countertop located between the lower cart compartment and the upper cart compartment to block movement of the second galley cart between the lower cart compartment and the upper cart compartment in the deployed position, the countertop moved to the clearance position to form an opening between the lower cart compartment and the upper cart compartment to allow movement of the second galley cart between the lower cart compartment and the upper cart compartment.
A stator for an electric motor with a stator body, which has arms, which protrude radially from a ring, are surrounded by a coil, with at least one electrical insulation, which is provided with passages, which, in the direction of the ring and the arms, are open for the winding wire, and which forms, at the inner edge of the stator body, a ring protruding axially over the stator body and with receptacles for insulation piercing contacts for the winding wire, characterized in that the protruding ring is provided over its periphery with the first passages for the winding wire, that the electrical insulation has second passages assigned to the first passages, and which cross or are connected to the receptacles provided for the insulation piercing contacts and are at a radial distance from the first passages.
A hydraulic coupling for a system distributing torque between the left and right wheels and/or the front and rear axles of a vehicle, the coupling comprises a hydraulic pump, a disc package and a coupling piston acting thereon, said coupling piston being actuated by an hydraulic pressure generated by the hydraulic pump in order to distribute the torque from an input to an output of the coupling, wherein the coupling piston is configured to be mechanically locked by an integrated locking arrangement, when the coupling piston is actuated to act on the disc package, such that the coupling remains engaged whereby the input is connected to the output of the coupling without hydraulic pressure acting on the coupling piston, and characterised in that unlocking of the hydraulic coupling is provided by again actuating the coupling piston.
A method of outputting encoded video data, the method comprising: arranging coded video pictures (184, 186, 190, 194, 199, 204, 208, 212, 224, 228, 232) of a fragment (180A, 180B, 200, 220) of a video file according to a hierarchical layer to which the coded video pictures belong, such that the resulting fragment comprises a plurality of sub-track fragments (182, 188, 192, 196, 202, 206, 210, 222, 226, 230), each of the sub-track fragments comprising a plurality of coded video pictures of the encoded video data, wherein for each respective sub-track fragment, each of the coded video pictures within the respective sub-track fragment corresponds to a common hierarchical layer; receiving a hypertext transfer protocol (HTTP) partial GET request, wherein the request specifies a byte range of the video file that corresponds to at least one of the sub-track fragments; and in response to the HTTP partial GET request, outputting the coded video pictures of the at least one sub-track fragment to which the byte range of the video file corresponds. arranging coded video pictures (184, 186, 190, 194, 199, 204, 208, 212, 224, 228, 232) of a fragment (180A, 180B, 200, 220) of a video file according to a hierarchical layer to which the coded video pictures belong, such that the resulting fragment comprises a plurality of sub-track fragments (182, 188, 192, 196, 202, 206, 210, 222, 226, 230), each of the sub-track fragments comprising a plurality of coded video pictures of the encoded video data, wherein for each respective sub-track fragment, each of the coded video pictures within the respective sub-track fragment corresponds to a common hierarchical layer; receiving a hypertext transfer protocol (HTTP) partial GET request, wherein the request specifies a byte range of the video file that corresponds to at least one of the sub-track fragments; and in response to the HTTP partial GET request, outputting the coded video pictures of the at least one sub-track fragment to which the byte range of the video file corresponds.
An outdoor unit for an air-conditioner comprising: a driving source generating a rotatory power, the driving source including a driving shaft; a hub shaft coupled with the driving shaft having a side hole; and rotary blades fixed to the hub shaft converting the rotatory power received from the hub shaft into a pressure difference to discharge air, wherein the hub shaft comprises: a main plate unit, perpendicular to the hub shaft, and positioned near an end of the hub shaft where air is discharged, without being on a plane of the side hole, and the main plate unit covers at least a portion of the hub shaft; and a projection projected from the main plate unit toward the driving source, wherein the projection has a first coupling hole formed at a side of the projection corresponding to the side hole, and having a central hole formed at the center of an opening adapted to receive the driving shaft, wherein a distance between the driving source and the hub shaft is within a range of 20% of a diameter (d) of the hub shaft. a driving source generating a rotatory power, the driving source including a driving shaft; a hub shaft coupled with the driving shaft having a side hole; and rotary blades fixed to the hub shaft converting the rotatory power received from the hub shaft into a pressure difference to discharge air, wherein the hub shaft comprises: a main plate unit, perpendicular to the hub shaft, and positioned near an end of the hub shaft where air is discharged, without being on a plane of the side hole, and the main plate unit covers at least a portion of the hub shaft; and a projection projected from the main plate unit toward the driving source, a main plate unit, perpendicular to the hub shaft, and positioned near an end of the hub shaft where air is discharged, without being on a plane of the side hole, and the main plate unit covers at least a portion of the hub shaft; and a projection projected from the main plate unit toward the driving source, wherein the projection has a first coupling hole formed at a side of the projection corresponding to the side hole, and having a central hole formed at the center of an opening adapted to receive the driving shaft, wherein a distance between the driving source and the hub shaft is within a range of 20% of a diameter (d) of the hub shaft.
An apparatus for generating a particulate beam, comprising: an oven configured for evaporating electrically neutral particles; characterized in that the apparatus comprises: a duct defined by walls having an inner surface capable of sustaining a temperature above an electron emission temperature of said inner surface, so as to negatively charge said evaporated electrically neutral particles while being passed through said duct when said inner surface is heated to said temperature above said electron emission temperature; a heating element for heating said inner surface to said temperature above said electron emission temperature; and an acceleration electrode for ion-optically controlling and manipulating the negatively charged particles into an anion beam. an oven configured for evaporating electrically neutral particles; a duct defined by walls having an inner surface capable of sustaining a temperature above an electron emission temperature of said inner surface, so as to negatively charge said evaporated electrically neutral particles while being passed through said duct when said inner surface is heated to said temperature above said electron emission temperature; a heating element for heating said inner surface to said temperature above said electron emission temperature; and an acceleration electrode for ion-optically controlling and manipulating the negatively charged particles into an anion beam.
A glenoid implant to be coupled with a prepared glenoid of a patient, the glenoid implant comprising: a body having: a concave surface configured to engage a humeral head implant component, and a convex surface configured to engage a mating surface of the prepared glenoid of the patient, the convex surface having a peripheral area surrounding a central area; a central peg extending from the central area of the convex surface, the central peg being configured to be cemented to a central bore of the prepared glenoid of the patient, the central peg having a cylindrically shaped body and a plurality of rigid fins extending from the cylindrically shaped body, the central peg having a first length and a maximum outer diameter; and a peripheral peg extending from the peripheral area of the convex surface, the peripheral peg having a first set of lobes at a first longitudinal position of the peripheral peg and a second set of lobes at a second longitudinal position of the peripheral peg that is spaced from the first longitudinal position, the peripheral peg having a second length, wherein the first length and the second length are measured from the convex surface to a tip of the central peg and a tip of the peripheral peg respectively, characterised in that the first set of lobes and the second set of lobes are resilient, wherein the second length of the peripheral peg is less than the first length of the central peg and the peripheral peg has a maximum outer diameter that is larger than the maximum outer diameter of the central peg. a body having: a concave surface configured to engage a humeral head implant component, and a convex surface configured to engage a mating surface of the prepared glenoid of the patient, the convex surface having a peripheral area surrounding a central area; a concave surface configured to engage a humeral head implant component, and a convex surface configured to engage a mating surface of the prepared glenoid of the patient, the convex surface having a peripheral area surrounding a central area; a central peg extending from the central area of the convex surface, the central peg being configured to be cemented to a central bore of the prepared glenoid of the patient, the central peg having a cylindrically shaped body and a plurality of rigid fins extending from the cylindrically shaped body, the central peg having a first length and a maximum outer diameter; and a peripheral peg extending from the peripheral area of the convex surface, the peripheral peg having a first set of lobes at a first longitudinal position of the peripheral peg and a second set of lobes at a second longitudinal position of the peripheral peg that is spaced from the first longitudinal position, the peripheral peg having a second length,
A method for secure reception of a transmission on a broadcast channel, the method comprising: receiving a transmission on the broadcast channel including an access key identifier, a random value, and an encrypted content; determining a broadcast access key based on the access key identifier; generating a short term key based on the broadcast access key and the random value; and decrypting the encrypted content in the transmission using the short term key. receiving a transmission on the broadcast channel including an access key identifier, a random value, and an encrypted content; determining a broadcast access key based on the access key identifier; generating a short term key based on the broadcast access key and the random value; and decrypting the encrypted content in the transmission using the short term key.
A cooled type semiconductor device, comprising: a plurality of flat cooling tubes (2A, 2B) arranged in parallel with one another, each of which has therein a fluid passage, a pair of header communication opening portions (48, 48) and end portions; a plurality of semiconductor modules each of which is pinched between adjacent two fluid passages of the cooling tubes to transfer heat created by the pinched semiconductor module; and a plurality of connecting tube portions (500, 600) connecting end portions of two adjacent cooling tubes (2A, 2B) for allowing communication between the cooling tubes (2A, 2B) through communication opening portions provided in the end portions of the cooling tubes (2A, 2B); characterized in that the connecting tube portions (500, 600) are formed metallic sleeve portions (500, 600), each surrounding the header communication opening portions and located between two adjacent cooling tubes (2A, 2B) pinching a semiconductor module, and the semiconductor modules and adjacent two fluid passages of cooling tubes (2A, 2B) are pinched by at least one pinching member (9, 9a) which is a leaf spring, thereby the sleeve portions (500, 600) are elastically deformable in a pinching direction (x-direction) of the semiconductor modules, such that the semiconductor modules and the flat cooling tube are in contact with each other without curving and deforming the flat cooling tube. a plurality of flat cooling tubes (2A, 2B) arranged in parallel with one another, each of which has therein a fluid passage, a pair of header communication opening portions (48, 48) and end portions; a plurality of semiconductor modules each of which is pinched between adjacent two fluid passages of the cooling tubes to transfer heat created by the pinched semiconductor module; and a plurality of connecting tube portions (500, 600) connecting end portions of two adjacent cooling tubes (2A, 2B) for allowing communication between the cooling tubes (2A, 2B) through communication opening portions provided in the end portions of the cooling tubes (2A, 2B); characterized in that the connecting tube portions (500, 600) are formed metallic sleeve portions (500, 600), each surrounding the header communication opening portions and located between two adjacent cooling tubes (2A, 2B) pinching a semiconductor module, and the semiconductor modules and adjacent two fluid passages of cooling tubes (2A, 2B) are pinched by at least one pinching member (9, 9a) which is a leaf spring, thereby the sleeve portions (500, 600) are elastically deformable in a pinching direction (x-direction) of the semiconductor modules, such that the semiconductor modules and the flat cooling tube are in contact with each other without curving and deforming the flat cooling tube.