mhurhangee/ep-ind-claims huggingface dataset:
An electronic device comprising: a slide cover which is slidably attached in an openable/closable manner to a device case and conceals a recording paper ejection opening provided in the device case; a waterproof gasket which is provided on either one of the slide cover and the device case in a part positioned in periphery of the recording paper ejection opening, and arranged between the slide cover and the device case surrounding the recording paper ejection opening, when the slide cover conceals the recording paper ejection opening; and characterized by further comprising: a guide member which does not come in contact with the waterproof gasket on the side of the slide cover and the device case with which the waterproof gasket meets face to face during a sliding motion of the slide cover, and the waterproof gasket presses on both sides between the slide cover and the device case when the slide cover conceals the recording paper ejection opening and the sliding motion is completed. a slide cover which is slidably attached in an openable/closable manner to a device case and conceals a recording paper ejection opening provided in the device case; a waterproof gasket which is provided on either one of the slide cover and the device case in a part positioned in periphery of the recording paper ejection opening, and arranged between the slide cover and the device case surrounding the recording paper ejection opening, when the slide cover conceals the recording paper ejection opening; and characterized by further comprising: a guide member which does not come in contact with the waterproof gasket on the side of the slide cover and the device case with which the waterproof gasket meets face to face during a sliding motion of the slide cover, and the waterproof gasket presses on both sides between the slide cover and the device case when the slide cover conceals the recording paper ejection opening and the sliding motion is completed.
A flexographic relief image printing element comprising: a) a backing layer; b) a first photopolymer layer disposed on the backing layer and comprising a first photopolymer composition comprising a silicone monomer or silicone oil; c) a second photopolymer layer disposed on the first photopolymer layer and comprising a second photopolymer composition that is capable of being imagewise exposed to actinic radiation to create a relief image therein, wherein the second photopolymer layer has a surface energy which is at least 0.005 N/m (5 dynes/cm) higher than the surface energy of the first photopolymer layer when the layers are cured; and d) a removable cover sheet. a) a backing layer; b) a first photopolymer layer disposed on the backing layer and comprising a first photopolymer composition comprising a silicone monomer or silicone oil; c) a second photopolymer layer disposed on the first photopolymer layer and comprising a second photopolymer composition that is capable of being imagewise exposed to actinic radiation to create a relief image therein, wherein the second photopolymer layer has a surface energy which is at least 0.005 N/m (5 dynes/cm) higher than the surface energy of the first photopolymer layer when the layers are cured; and d) a removable cover sheet.
A photovoltaic element comprising: a semiconductor substrate; a first i-type semiconductor film on a part of one surface of the semiconductor substrate; a first semiconductor region comprising a first-conductivity-type semiconductor film on the first i-type semiconductor film; a first electrode layer on the first semiconductor region; a second i-type semiconductor film on another part of that surface of the semiconductor substrate; a second semiconductor region comprising a second-conductivity-type semiconductor film on the second i-type semiconductor film; a second electrode layer on the second semiconductor region; and a first conductive film comprising a metal oxide film and being partly interposed at least at a site between the first semiconductor region and the first electrode layer, characterized in that the first conductive film comprises mutually isolated conductive islands, with the first electrode layer being extended from and along the surface of each island in such a manner as to cover the surface of each island and fill in spaces between adjacent islands until the first electrode layer reaches the surface of the first-conductivity-type semiconductor film. a semiconductor substrate; a first i-type semiconductor film on a part of one surface of the semiconductor substrate; a first semiconductor region comprising a first-conductivity-type semiconductor film on the first i-type semiconductor film; a first electrode layer on the first semiconductor region; a second i-type semiconductor film on another part of that surface of the semiconductor substrate; a second semiconductor region comprising a second-conductivity-type semiconductor film on the second i-type semiconductor film; a second electrode layer on the second semiconductor region; and a first conductive film comprising a metal oxide film and being partly interposed at least at a site between the first semiconductor region and the first electrode layer, characterized in that the first conductive film comprises mutually isolated conductive islands, with the first electrode layer being extended from and along the surface of each island in such a manner as to cover the surface of each island and fill in spaces between adjacent islands until the first electrode layer reaches the surface of the first-conductivity-type semiconductor film.
An imaging apparatus comprising: a storage means configured to store images that are being outputted from an imaging means; a receiving means configured to receive a request from an external device for changing a VideoSourceMode of a VideoSource, which videoSource is a set of parameters indicating capabilities of the imaging means and wherein the VideoSourceMode is a setting specifying a combination of at least a maximum resolution of the images and a maximum frame rate of the images; a determining means configured to determine, when the receiving means receives the request for changing the VideoSourceMode, whether there exists a RecordingJob corresponding to the VideoSource, for recording the images that are being outputted from the imaging means and to further determine whether or not recording is currently being performed for the RecordingJob determined to correspond to the VideoSource; and control means configured to output an error response to the external device in response to the request if it is determined that recording is currently being performed (S1801, YES) by the RecordingJob corresponding to the VideoSource, and to change the VideoSourceMode in response to the request if it is determined that no recording is currently being performed by the RecordingJob corresponding to the VideoSource. a storage means configured to store images that are being outputted from an imaging means; a receiving means configured to receive a request from an external device for changing a VideoSourceMode of a VideoSource, which videoSource is a set of parameters indicating capabilities of the imaging means and wherein the VideoSourceMode is a setting specifying a combination of at least a maximum resolution of the images and a maximum frame rate of the images; a determining means configured to determine, when the receiving means receives the request for changing the VideoSourceMode, whether there exists a RecordingJob corresponding to the VideoSource, for recording the images that are being outputted from the imaging means and to further determine whether or not recording is currently being performed for the RecordingJob determined to correspond to the VideoSource; and control means configured to output an error response to the external device in response to the request if it is determined that recording is currently being performed (S1801, YES) by the RecordingJob corresponding to the VideoSource, and to change the VideoSourceMode in response to the request if it is determined that no recording is currently being performed by the RecordingJob corresponding to the VideoSource.
A hybrid drive system for a working vehicle including onboard or attached hydraulically drivable devices, wherein the hybrid drive system includes a mechanical drive train with a gear unit between a combustion engine and at least one drive shaft and a parallel hydraulic hybrid module, which includes a hydraulic unit (11, 12), which is operable as a motor or a pump and is connected to the mechanical drive train by means of a selectively engageable and disengageable clutch, and an auxiliary gear unit, and at least one pressure reservoir (HS1, HS2), wherein at least one hydraulic working module is provided for hydraulically operable devices and is connected or connectable in a pressure and in a volume transmitting manner to the hybrid module, characterised in that hydraulic energy obtained from the operation of at least one of the devices is feedable via the hydraulic working module into the hybrid module and that coupled to the combustion engine there is a hydraulic variable displacement pump, connected to which are at least the hydraulic working module and a hydraulic steering mechanism.
Elbow connector assembly comprising: - a hollow elbow-shape structure comprising an inner gas path, and - an anti-asphyxia valve structure comprising a flexible flap arranged in the inner gas path of the elbow-shape structure, characterized in that the flexible flap is traversed by several holes and comprises a hemispherical-shape portion. - a hollow elbow-shape structure comprising an inner gas path, and - an anti-asphyxia valve structure comprising a flexible flap arranged in the inner gas path of the elbow-shape structure,
A method for preparing a collagen material characterized in that it comprises the following steps: a) preparing an aqueous solution of native or denatured collagen in acid form, b) adding an aldehyde cross-linking agent that is non-reactive at acidic pH, c) molding or casting the aqueous collagen solution, d) coagulating and cross-linking the aqueous collagen solution by treating with ammonia gas, e) removing excess ammonia and obtaining the collagen material by drying. a) preparing an aqueous solution of native or denatured collagen in acid form, b) adding an aldehyde cross-linking agent that is non-reactive at acidic pH, c) molding or casting the aqueous collagen solution, d) coagulating and cross-linking the aqueous collagen solution by treating with ammonia gas, e) removing excess ammonia and obtaining the collagen material by drying.
Chiglitazar or its stereoisomers, geometric isomers, tautomers, solvates, crystal forms, amorphous forms, or pharmaceutically acceptable salts for use in the treatment of a fibrotic disease caused by tissue cell damage resulting from chronic inflammation.
A method for mitigating phishing attacks, the method comprising: receiving emails (131, 133) intended for recipient mailboxes in an email system; examining (201; 501; 801) the emails for web links (132, 134) to web pages (122, 124, 126) included therein; in response to an email that is encountered in the emails that includes a web link to a web page, retrieving (203; 503; 803) the web page using the web link; determining (205; 505; 807) if the email comprises an occurrence of a phishing attack against at least a protected web page based at least in part on a comparison of the web page to the protected web page; and in response to the occurrence of the phishing attack, mitigating (209; 509; 811) the phishing attack against the protected web page, wherein the protected web page comprises a login page to a web site, wherein mitigating the phishing attack against the protected web page comprises submitting tracking credentials to the web page and wherein mitigating the phishing attack against the protected web page further comprises monitoring for an attempt to access the protected web page with the tracking credential. receiving emails (131, 133) intended for recipient mailboxes in an email system; examining (201; 501; 801) the emails for web links (132, 134) to web pages (122, 124, 126) included therein; in response to an email that is encountered in the emails that includes a web link to a web page, retrieving (203; 503; 803) the web page using the web link; determining (205; 505; 807) if the email comprises an occurrence of a phishing attack against at least a protected web page based at least in part on a comparison of the web page to the protected web page; and in response to the occurrence of the phishing attack, mitigating (209; 509; 811) the phishing attack against the protected web page, wherein the protected web page comprises a login page to a web site, wherein mitigating the phishing attack against the protected web page comprises submitting tracking credentials to the web page and wherein mitigating the phishing attack against the protected web page further comprises monitoring for an attempt to access the protected web page with the tracking credential.
A hydrogel implant configured for implantation within a joint of a patient, comprising: a top end configured to form an articulation surface when properly implanted within a joint; a bottom end generally opposite of the top end; a main hydrogel body extending between the top end and the bottom end and having a longitudinal centerline; wherein a diameter or a cross-sectional dimension of the bottom end is greater than a diameter or a cross-sectional dimension of the top end; and side walls extending between the top end and the bottom end, said side walls being generally sloped relative to the longitudinal centerline; wherein the implant comprises a tapered shape due to a difference between the diameters or cross-sectional dimensions of the top end and the bottom end; wherein the implant is configured for placement within an implant site having a similar reverse tapered shape, thereby reducing the likelihood of unintentional removal of the implant from the implant site following implantation; wherein a diameter of the bottom end is 5% to 25% larger than a diameter of the top end; and wherein the implant is radially oversized relative to a target implant site into which the implant is configured to be placed, and wherein a height of the implant is configured to increase upon implantation due to the radial compression of the implant within a target implant site, characterized in that a transition between the top end and the side walls is generally curved, and the sloped side walls are generally flat from the transition to the bottom end. a top end configured to form an articulation surface when properly implanted within a joint; a bottom end generally opposite of the top end; a main hydrogel body extending between the top end and the bottom end and having a longitudinal centerline; wherein a diameter or a cross-sectional dimension of the bottom end is greater than a diameter or a cross-sectional dimension of the top end; and side walls extending between the top end and the bottom end, said side walls being generally sloped relative to the longitudinal centerline; wherein the implant comprises a tapered shape due to a difference between the diameters or cross-sectional dimensions of the top end and the bottom end; wherein the implant is configured for placement within an implant site having a similar reverse tapered shape, thereby reducing the likelihood of unintentional removal of the implant from the implant site following implantation; wherein a diameter of the bottom end is 5% to 25% larger than a diameter of the top end; and wherein the implant is radially oversized relative to a target implant site into which the implant is configured to be placed, and wherein a height of the implant is configured to increase upon implantation due to the radial compression of the implant within a target implant site, characterized in that a transition between the top end and the side walls is generally curved, and the sloped side walls are generally flat from the transition to the bottom end.
A bone removal device, comprising: an outer elongated shaft having a longitudinal axis, a distal end and a proximal end; a bone borer having a distal drilling tip configured to drill into a bone tissue and at least one proximal reamer, wherein said bone borer is movably coupled to a distal end of said outer elongated shaft, wherein said bone borer is configured to move between a drilling state, in which said drilling tip is placed in contact with bone tissue, and reaming states, in which said at least one proximal reamer is placed in contact with the bone tissue; a pusher element mechanically coupled to said outer elongated shaft and to said bone borer, wherein said pusher element is configured to tilt said bone borer relative to said longitudinal axis of said outer elongated shaft so as to provide said distal drilling tip in a forwardly facing position during said drilling state, and said at least one reamer in a radially extending position during said reaming states; and a rotatable adjuster coupled to said pusher element, said rotatable adjuster configured to rotate between two or more predetermined stopping states each defining a different tilting angle of said bone borer relative to said longitudinal axis of said outer elongated shaft; characterized in that, in said drilling state, said proximal reamer is located proximal to said shaft distal end. an outer elongated shaft having a longitudinal axis, a distal end and a proximal end; a bone borer having a distal drilling tip configured to drill into a bone tissue and at least one proximal reamer, wherein said bone borer is movably coupled to a distal end of said outer elongated shaft, wherein said bone borer is configured to move between a drilling state, in which said drilling tip is placed in contact with bone tissue, and reaming states, in which said at least one proximal reamer is placed in contact with the bone tissue; a pusher element mechanically coupled to said outer elongated shaft and to said bone borer, wherein said pusher element is configured to tilt said bone borer relative to said longitudinal axis of said outer elongated shaft so as to provide said distal drilling tip in a forwardly facing position during said drilling state, and said at least one reamer in a radially extending position during said reaming states; and a rotatable adjuster coupled to said pusher element, said rotatable adjuster configured to rotate between two or more predetermined stopping states each defining a different tilting angle of said bone borer relative to said longitudinal axis of said outer elongated shaft; characterized in that, in said drilling state, said proximal reamer is located proximal to said shaft distal end.
A smart susceptor assembly, comprising: an electromagnetic flux field source configured to generate a magnetic flux field; a plurality of susceptor elements positioned adjacent to the electromagnetic flux field source, wherein each susceptor element of the plurality of susceptor elements comprises a leveling temperature and a Curie temperature; and a plurality of conductor elements, wherein each conductor element of the plurality of conductor elements is electrically coupled to, and in thermal communication with, one of the susceptor elements of the plurality of susceptor elements; the smart susceptor assembly comprises a plurality of susceptor tabs (104, 502, 802), with each susceptor tab (104, 502, 802) being provided by one of the susceptor elements paired with one of the conductor elements; and the susceptor element of each susceptor tab (104, 502, 802) is coextensive with the conductor element paired therewith; wherein the electromagnetic flux field source is at least partly provided by a conductor wire that overlies the plurality of susceptor elements, wherein the conductor wire is electrically insulated from the susceptor tabs; and the smart susceptor assembly further comprises an alternating current power supply electrically coupled to the conductor wire. an electromagnetic flux field source configured to generate a magnetic flux field; a plurality of susceptor elements positioned adjacent to the electromagnetic flux field source, wherein each susceptor element of the plurality of susceptor elements comprises a leveling temperature and a Curie temperature; and a plurality of conductor elements, wherein each conductor element of the plurality of conductor elements is electrically coupled to, and in thermal communication with, one of the susceptor elements of the plurality of susceptor elements; the smart susceptor assembly comprises a plurality of susceptor tabs (104, 502, 802), with each susceptor tab (104, 502, 802) being provided by one of the susceptor elements paired with one of the conductor elements; and the susceptor element of each susceptor tab (104, 502, 802) is coextensive with the conductor element paired therewith; wherein the electromagnetic flux field source is at least partly provided by a conductor wire that overlies the plurality of susceptor elements, wherein the conductor wire is electrically insulated from the susceptor tabs; and the smart susceptor assembly further comprises an alternating current power supply electrically coupled to the conductor wire.
A gas-over-oil actuator system for use with a valve in a natural gas pipeline, the system comprising: a gas-over-oil actuator for actuating the valve in the natural gas pipeline; a wireless position monitor operatively coupled to the gas-over-oil actuator, the wireless position monitor having an integral pneumatic pilot spool valve in the form of an opened center spool valve and configured to be communicatively wirelessly coupled to a remote workstation; at least one switching relay (124, 124a, 124b) operatively coupled to the gas-over-oil actuator and the wireless position monitor, the at least one switching relay (124, 124a, 124b) configured to receive a pilot signal from the pneumatic pilot spool valve of the wireless position monitor; and at least one torque limiting device disposed between the pneumatic pilot spool valve of the wireless position monitor and the at least one switching relay (124, 124a, 124b) configured to prevent excess torque from the gas-over-oil actuator; wherein, upon wirelessly receiving a command from the remote workstation (140, 240), the wireless position monitor (118, 318) drives a pilot signal from the pneumatic pilot spool valve to the at least one switching relay (124, 124a, 124b) to manage a pressure supply to the gas-over-oil actuator for moving the valve in the natural gas pipeline to a desired position. a gas-over-oil actuator for actuating the valve in the natural gas pipeline; a wireless position monitor operatively coupled to the gas-over-oil actuator, the wireless position monitor having an integral pneumatic pilot spool valve in the form of an opened center spool valve and configured to be communicatively wirelessly coupled to a remote workstation; at least one switching relay (124, 124a, 124b) operatively coupled to the gas-over-oil actuator and the wireless position monitor, the at least one switching relay (124, 124a, 124b) configured to receive a pilot signal from the pneumatic pilot spool valve of the wireless position monitor; and at least one torque limiting device disposed between the pneumatic pilot spool valve of the wireless position monitor and the at least one switching relay (124, 124a, 124b) configured to prevent excess torque from the gas-over-oil actuator; wherein, upon wirelessly receiving a command from the remote workstation (140, 240), the wireless position monitor (118, 318) drives a pilot signal from the pneumatic pilot spool valve to the at least one switching relay (124, 124a, 124b) to manage a pressure supply to the gas-over-oil actuator for moving the valve in the natural gas pipeline to a desired position.