mhurhangee/ep-ind-claims huggingface dataset:
Use of a polyamide resin composition for rotational molding, wherein the polyamide resin composition comprises: a component in an amount of a parts by weight, which is an aliphatic polyamide having a relative viscosity ηr of less than 2.6 as measured according to JIS K6920 under the conditions of 96 wt% of sulfuric acid, 1 wt% of the polymer concentration, and 25°C; a component in an amount of b parts by weight, which is a modified polyolefin having a density of 0.895 g/cm3 or less as measured according to ASTM D1505; and a component in an amount of c parts by weight, which is a non-modified polyolefin having an MFR value of 3.0 to 30 g/10min as measured in a load of 2.16 kg at 190°C; and wherein the polyamide resin composition satisfies the following equations: 50 ≤ c / b + c × 100 ≤ 70, and 10 ≤ b + c / a + b + c × 100 ≤ 40. a component in an amount of a parts by weight, which is an aliphatic polyamide having a relative viscosity ηr of less than 2.6 as measured according to JIS K6920 under the conditions of 96 wt% of sulfuric acid, 1 wt% of the polymer concentration, and 25°C; a component in an amount of b parts by weight, which is a modified polyolefin having a density of 0.895 g/cm3 or less as measured according to ASTM D1505; and a component in an amount of c parts by weight, which is a non-modified polyolefin having an MFR value of 3.0 to 30 g/10min as measured in a load of 2.16 kg at 190°C; and wherein the polyamide resin composition satisfies the following equations: 50 ≤ c / b + c × 100 ≤ 70, and 10 ≤ b + c / a + b + c × 100 ≤ 40.
A method comprising contacting a polymer composition with a metal processing surface wherein the metal processing surface is at a temperature of equal to or greater than 90°C, wherein the polymer composition comprises one or more base polymers selected from the group consisting of polyvinyl halides, poly(meth)acrylics, polycarbonates, olefin-based polymers, and polystryrenes and a lubricant package which comprises at least one release agent of the following formulas: where R is an alkyl group having 6 or more carbon atoms, M is a metal or cation, and X may be absent or selected from the group consisting of aromatic groups and ester groups, wherein the release agent is present in an amount from 0.001 to 0.5 phr. contacting a polymer composition with a metal processing surface wherein the metal processing surface is at a temperature of equal to or greater than 90°C, wherein the polymer composition comprises one or more base polymers selected from the group consisting of polyvinyl halides, poly(meth)acrylics, polycarbonates, olefin-based polymers, and polystryrenes and a lubricant package which comprises at least one release agent of the following formulas: where R is an alkyl group having 6 or more carbon atoms, M is a metal or cation, and X may be absent or selected from the group consisting of aromatic groups and ester groups, wherein the release agent is present in an amount from 0.001 to 0.5 phr.
A method of designing a patient-specific orthopedic implant, the method comprising: comparing a patient-specific abnormal bone model, derived from an actual anatomy of a patient's abnormal bone, with a reconstructed patient-specific bone model, also derived from the anatomy of the patient's bone, where the reconstructed patient-specific bone model reflects a normalized anatomy of the patient's bone, and where the patient-specific abnormal bone model reflects an actual anatomy of the patient's bone including at least one of a partial bone, a deformed bone, and a shattered bone, wherein the patient-specific abnormal bone model comprises at least one of a patient-specific abnormal point cloud and a patient-specific abnormal bone surface model, and wherein the reconstructed patient-specific bone model comprises at least one of a reconstructed patient-specific point cloud and a reconstructed patient-specific bone surface model; optimizing one or more parameters for a patient-specific orthopedic implant to be mounted to the patient's abnormal bone using data output from comparing the patient-specific abnormal bone model to the reconstructed patient-specific bone model; and, generating an electronic design file for the patient-specific orthopedic implant taking into account the one or more parameters. comparing a patient-specific abnormal bone model, derived from an actual anatomy of a patient's abnormal bone, with a reconstructed patient-specific bone model, also derived from the anatomy of the patient's bone, where the reconstructed patient-specific bone model reflects a normalized anatomy of the patient's bone, and where the patient-specific abnormal bone model reflects an actual anatomy of the patient's bone including at least one of a partial bone, a deformed bone, and a shattered bone, wherein the patient-specific abnormal bone model comprises at least one of a patient-specific abnormal point cloud and a patient-specific abnormal bone surface model, and wherein the reconstructed patient-specific bone model comprises at least one of a reconstructed patient-specific point cloud and a reconstructed patient-specific bone surface model; optimizing one or more parameters for a patient-specific orthopedic implant to be mounted to the patient's abnormal bone using data output from comparing the patient-specific abnormal bone model to the reconstructed patient-specific bone model; and, generating an electronic design file for the patient-specific orthopedic implant taking into account the one or more parameters.
A cyclone separator for separating particles from a mixture of gas and particles, said cyclone separator comprising: a separation chamber in which the particles are separated from the gas; an inlet configured to provide the mixture of particles and gas to the separation chamber; a reverse flow gas outlet positioned to receive a portion of the gas, from which particles have been separated, from the separation chamber, the direction of this portion of the gas having been reversed in the separation chamber, the reverse flow gas outlet extends into the separation chamber so as to draw separated gas from inside the separation chamber; and a unidirectional flow gas outlet positioned to receive another portion of the gas, from which particles have been separated, from the separation chamber, the direction of this portion of the gas not having been reversed in the separation chamber, characterised in that: the flow area of the reverse flow gas outlet is greater than the flow area of the unidirectional flow gas outlet, such that, in operation, the mass flow rate of gas exiting via the reverse flow gas outlet is greater than the mass flow rate of gas exiting via the unidirectional flow gas outlet. a separation chamber in which the particles are separated from the gas; an inlet configured to provide the mixture of particles and gas to the separation chamber; a reverse flow gas outlet positioned to receive a portion of the gas, from which particles have been separated, from the separation chamber, the direction of this portion of the gas having been reversed in the separation chamber, the reverse flow gas outlet extends into the separation chamber so as to draw separated gas from inside the separation chamber; and a unidirectional flow gas outlet positioned to receive another portion of the gas, from which particles have been separated, from the separation chamber, the direction of this portion of the gas not having been reversed in the separation chamber, characterised in that: the flow area of the reverse flow gas outlet is greater than the flow area of the unidirectional flow gas outlet, such that, in operation, the mass flow rate of gas exiting via the reverse flow gas outlet is greater than the mass flow rate of gas exiting via the unidirectional flow gas outlet. the flow area of the reverse flow gas outlet is greater than the flow area of the unidirectional flow gas outlet, such that, in operation, the mass flow rate of gas exiting via the reverse flow gas outlet is greater than the mass flow rate of gas exiting via the unidirectional flow gas outlet.
Cardiopulmonary resuscitation system (1; 2) comprising: - a chest compression device (11; 12) pneumatically operated; - a support frame of said chest compression device (11; 12); - coupling means of said chest compression device (11; 12) to a patient; - a pneumatic circuit for actuating said chest compression device (11; 12); wherein said support frame is defined by a support plate, wherein said chest compression device (11; 12) is solidly coupled to said support plate at a side of said support plate, and wherein said coupling means comprise a pairs of anchoring devices (131, 231) arranged on opposite ends (321, 421) of said support plate and suitable for anchoring said support plate to the ground, said cardiopulmonary resuscitation system (1; 2) is characterized in that said pairs of anchoring devices (131, 231) consist of belts provided with at least an end operatively coupled respectively to one of said opposite ends (321, 421) of said support plate, and wherein each of said anchoring devices (131, 231) defines at least a loop allowing an operator to hold them onto the ground by inserting hands or feet of said operator within said loops. - a chest compression device (11; 12) pneumatically operated; - a support frame of said chest compression device (11; 12); - coupling means of said chest compression device (11; 12) to a patient; - a pneumatic circuit for actuating said chest compression device (11; 12); wherein said support frame is defined by a support plate, wherein said chest compression device (11; 12) is solidly coupled to said support plate at a side of said support plate, and wherein said coupling means comprise a pairs of anchoring devices (131, 231) arranged on opposite ends (321, 421) of said support plate and suitable for anchoring said support plate to the ground, said cardiopulmonary resuscitation system (1; 2) is characterized in that said pairs of anchoring devices (131, 231) consist of belts provided with at least an end operatively coupled respectively to one of said opposite ends (321, 421) of said support plate, and wherein each of said anchoring devices (131, 231) defines at least a loop allowing an operator to hold them onto the ground by inserting hands or feet of said operator within said loops.
A compression ratio varying mechanism used in an engine, comprising: a discharge oil passage connected to a hydraulic chamber; and a supply oil passage connected to a hydraulic pressure supply source; characterized by a hydraulic pressure adjustment mechanism that includes a pump cylinder including: a first oil storage chamber connected to the discharge oil passage and the supply oil passage; and a second oil storage chamber partitioned from the first oil storage chamber by an outer surface of a plunger, the outer surface contacting an inner surface of the pump cylinder; a communication passage connected to the second oil storage chamber; and an orifice provided in the communication passage. a discharge oil passage connected to a hydraulic chamber; and a supply oil passage connected to a hydraulic pressure supply source; characterized by a hydraulic pressure adjustment mechanism that includes a pump cylinder including: a first oil storage chamber connected to the discharge oil passage and the supply oil passage; and a second oil storage chamber partitioned from the first oil storage chamber by an outer surface of a plunger, the outer surface contacting an inner surface of the pump cylinder; a first oil storage chamber connected to the discharge oil passage and the supply oil passage; and a second oil storage chamber partitioned from the first oil storage chamber by an outer surface of a plunger, the outer surface contacting an inner surface of the pump cylinder; a communication passage connected to the second oil storage chamber; and an orifice provided in the communication passage.
A refrigerator, comprising a cabinet and a door body and further comprising: an automatic door opening/closing device, installed on the cabinet and configured to drive the door body to be opened or closed; a first obstacle detection device, installed on the door body and configured to detect whether there is an obstacle in front of the door body when the door body is opened such that the automatic door opening/closing device stops opening the door body when there is an obstacle in front of the door body; and a second obstacle detection device, configured to detect whether there is an obstacle behind the door body when the door body is closed such that the automatic door opening/closing device stops closing the door body when there is an obstacle behind the door body, characterized in that the first obstacle detection device comprises at least one distance sensing plate; the door body comprises a main body and a panel arranged on a front side of the main body; and each distance sensing plate adopts proximity sensing and is arranged between the main body and the panel and in abutting contact with the panel, wherein the second obstacle detection device is a force detection device configured to detect an output force of the automatic door opening/closing device such that the automatic door opening/closing device stops closing the door body when the output force is greater than or equal to a preset value. an automatic door opening/closing device, installed on the cabinet and configured to drive the door body to be opened or closed; a first obstacle detection device, installed on the door body and configured to detect whether there is an obstacle in front of the door body when the door body is opened such that the automatic door opening/closing device stops opening the door body when there is an obstacle in front of the door body; and a second obstacle detection device, configured to detect whether there is an obstacle behind the door body when the door body is closed such that the automatic door opening/closing device stops closing the door body when there is an obstacle behind the door body, characterized in that the first obstacle detection device comprises at least one distance sensing plate; the door body comprises a main body and a panel arranged on a front side of the main body; and each distance sensing plate adopts proximity sensing and is arranged between the main body and the panel and in abutting contact with the panel, wherein the second obstacle detection device is a force detection device configured to detect an output force of the automatic door opening/closing device such that the automatic door opening/closing device stops closing the door body when the output force is greater than or equal to a preset value.
A machine implemented method for a system comprising client devices (150, 180) connected over a network to a server device, wherein media files are stored at the server device and the server device updates a play list corresponding to changes to the media files stored at the server device, comprising: requesting, with the client device, a play list using a HTTP compliant transfer protocol; receiving, in response to the requesting, the playlist havingUniversal Resource Indicators, URIs, indicating a plurality of media files that are segments from a single contiguous stream of media data of a particular program anda plurality of tags having parameters related to the plurality of media files; requesting one or more of the media files in an order indicated in the playlist to recreate the contiguous stream of media data of the program; receiving the one or more of the media files, as requested in the order indicated in the playlist, over a network using the HTTP compliant transfer protocol; receiving the updated playlist, the updated playlist comprising a plurality of updated URIs indicating an ordering of an updated plurality of media files that are segments from the contiguous stream of media data of the program; receiving the updated plurality of media files. requesting, with the client device, a play list using a HTTP compliant transfer protocol; receiving, in response to the requesting, the playlist havingUniversal Resource Indicators, URIs, indicating a plurality of media files that are segments from a single contiguous stream of media data of a particular program anda plurality of tags having parameters related to the plurality of media files; requesting one or more of the media files in an order indicated in the playlist to recreate the contiguous stream of media data of the program; receiving the one or more of the media files, as requested in the order indicated in the playlist, over a network using the HTTP compliant transfer protocol; receiving the updated playlist, the updated playlist comprising a plurality of updated URIs indicating an ordering of an updated plurality of media files that are segments from the contiguous stream of media data of the program; receiving the updated plurality of media files.
A method for determining a population of particles contained in a biological sample, comprising: (a) passing particles from the biological sample through a measuring region of a particle analyzer; (b) interrogating each particle passing through the measuring region with at least two parameters; (c) detecting the at least two parameters with one or more detectors; (d) storing the detected at least two parameters as data; (e) selecting first data stored for a first parameter and a second data stored for a second parameter; (f) creating an initial two-dimensional histogram using the selected data for the first and second parameters, wherein a first dimension of the two-dimensional histogram corresponds to the first parameter and a second dimension of the two-dimensional histogram corresponds to the second parameter; (g) filtering the initial two-dimensional histogram to generate a filtered two-dimensional image; (h) detecting a plurality of seed populations in the filtered two-dimensional image; (i) generating one or more linear contour lines, each having a plurality of contour points, to separate the detected seed populations; and (j) adjusting the contour points in at least one of the linear contour lines to separate the detected seed populations; wherein step (j) comprises: defining a band around each contour point and dilating each defined band around each contour point, wherein the dilating comprises: (i) performing dual grayscale reconstruction on the filtered two-dimensional image; and (ii) applying a Watershed transformation on the dual-grayscale-reconstructed image. (a) passing particles from the biological sample through a measuring region of a particle analyzer; (b) interrogating each particle passing through the measuring region with at least two parameters; (c) detecting the at least two parameters with one or more detectors; (d) storing the detected at least two parameters as data; (e) selecting first data stored for a first parameter and a second data stored for a second parameter; (f) creating an initial two-dimensional histogram using the selected data for the first and second parameters, wherein a first dimension of the two-dimensional histogram corresponds to the first parameter and a second dimension of the two-dimensional histogram corresponds to the second parameter; (g) filtering the initial two-dimensional histogram to generate a filtered two-dimensional image; (h) detecting a plurality of seed populations in the filtered two-dimensional image; (i) generating one or more linear contour lines, each having a plurality of contour points, to separate the detected seed populations; and (j) adjusting the contour points in at least one of the linear contour lines to separate the detected seed populations; (i) performing dual grayscale reconstruction on the filtered two-dimensional image; and (ii) applying a Watershed transformation on the dual-grayscale-reconstructed image.
Electronic torque wrench comprising a grip body having a user interface and a control electronics for controlling the wrench, from one extremity of the grip body protruding a mechanical connection element terminating at one extremity with a tightening head which can be coupled in a removable and replaceable way to the connection element, in the connection element being present torque sensors for determining the torque transmitted between the grip body and the head, wherein the connection element is connected in a removable and replaceable way to the grip body and comprises memory means that contain data for calibrating the wrench to such connection element and means for transferring such data to the control electronics.
A method of analyzing double stranded polynucleotides comprising: copying a strand of a double stranded polynucleotide so that nucleotide analogs with distinct optical labels are substituted for two or three kinds of nucleotide to form a labeled strand; copying a complement of the strand so that said nucleotide analogs are substituted for the same two or three kinds of nucleotide to form a labeled complement; translocating the labeled strand through a nanopore so that the nucleotides of the labeled strand pass single file through an excitation zone where optical labels are excited to generate optical signals; detecting a time series of optical signals from the optical labels as the labeled strand translocates through the nanopore to produce a strand optical signature; translocating the labeled complement through a nanopore so that the nucleotides of the labeled complement pass single file through an excitation zone where optical labels are excited to generate optical signals; detecting a time series of optical signals from the optical labels as the labeled complement translocates through the nanopore to produce a complement optical signature; determining a sequence of the double stranded polynucleotide from the strand optical signature and the complement optical signature. copying a strand of a double stranded polynucleotide so that nucleotide analogs with distinct optical labels are substituted for two or three kinds of nucleotide to form a labeled strand; copying a complement of the strand so that said nucleotide analogs are substituted for the same two or three kinds of nucleotide to form a labeled complement; translocating the labeled strand through a nanopore so that the nucleotides of the labeled strand pass single file through an excitation zone where optical labels are excited to generate optical signals; detecting a time series of optical signals from the optical labels as the labeled strand translocates through the nanopore to produce a strand optical signature; translocating the labeled complement through a nanopore so that the nucleotides of the labeled complement pass single file through an excitation zone where optical labels are excited to generate optical signals; detecting a time series of optical signals from the optical labels as the labeled complement translocates through the nanopore to produce a complement optical signature; determining a sequence of the double stranded polynucleotide from the strand optical signature and the complement optical signature.
A method of extending the shelf life of an initiated monomer mixture comprising the prevention of premature free radical polymerisation by introducing oxygen or oxygen-containing gas into a container of the initiated monomer mixture and providing mechanical agitation to the container.