mhurhangee/patent-ind-claim-en huggingface dataset:
A polyolefin blend characterized according to Structure Test Method by a co-continuous pathways, microphase-separated network structure, which consists of a first phase of (A) a poly(alpha-olefin) (homo or co)polymer and a second phase of (B) a molecular catalyst-derived poly(ethylene-co-(alpha-olefin)) copolymer; wherein the (B) molecular catalyst-derived ethylene/alpha-olefin copolymer is a molecular catalyst-derived ethylene/propylene copolymer.
An electric fan comprising: a stator ; a fan rotor rotatably mounted relative to the stator , the fan rotor comprising: an annular body defining a flow passage therethrough; a ring gear extending around the flow passage; and a plurality of fan blades disposed in the flow passage and mounted for common rotation with the annular body about a fan rotation axis (FA); and an electric motor mounted to the stator and drivingly engaged with the ring gear to cause rotation of the fan rotor relative to the stator , the electric motor having a motor rotation axis (MA) that differs from the fan rotation axis (FA); characterised in that : the electric motor is one of a plurality of electric motors drivingly engaged with the ring gear ; the plurality of electric motors define a plurality of motor pairs circumferentially distributed about the fan rotation axis (FA); each motor pair is drivingly engaged with the ring gear via a respective pinion gear ; and each motor pair is disposed radially outwardly from the annular body of the fan rotor . a stator ; a fan rotor rotatably mounted relative to the stator , the fan rotor comprising: an annular body defining a flow passage therethrough; a ring gear extending around the flow passage; and a plurality of fan blades disposed in the flow passage and mounted for common rotation with the annular body about a fan rotation axis (FA); and an annular body defining a flow passage therethrough; a ring gear extending around the flow passage; and a plurality of fan blades disposed in the flow passage and mounted for common rotation with the annular body about a fan rotation axis (FA); and the electric motor is one of a plurality of electric motors drivingly engaged with the ring gear ; the plurality of electric motors define a plurality of motor pairs circumferentially distributed about the fan rotation axis (FA); each motor pair is drivingly engaged with the ring gear via a respective pinion gear ; and each motor pair is disposed radially outwardly from the annular body of the fan rotor .
An electrolytic device comprising a housing including at least first and second adjacent liquid flow-through channels, each channel having first ends and second ends , an inlet adjacent the upstream end of each channel and an outlet adjacent the downstream end of each channel, said first ends being adjacent to each other and said second ends being adjacent to each other; a first barrier impermeable to ion flow and to bulk liquid flow disposed between said first and second channels; a first electrode assembly disposed adjacent to both of said first ends in electrical communication with said first and second channels ; a second electrode assembly disposed adjacent to both of said second ends in electrical communication with said first and second channels; a first ion exchange barrier assembly which permits ion transport and blocks bulk liquid flow disposed adjacent both of said first ends between said first electrode assembly and said first ends ; and a second ion exchange barrier assembly which permits ion transport and blocks bulk liquid flow disposed adjacent said second ends between said second electrode assembly and both of said second ends .
A peptide a) consisting of the amino acid sequence of SEQ ID NO: 87 or b) comprising the amino acid sequence of SEQ ID NO: 87 and having an overall length of up to 14 amino acids, and having the ability to bind to a molecule of the human major histocompatibility complex (MHC) class-I, or a pharmaceutically acceptable salt of a) or b).
A quantum dot comprising: a core comprising a first semiconductor nanocrystal material comprising zinc, tellurium and selenium; and a semiconductor nanocrystal shell disposed on the core, the semiconductor nanocrystal shell comprising zinc, selenium, and sulfur; wherein the quantum dot does not comprise cadmium; wherein in the quantum dot, a mole ratio of sulfur with respect to selenium is less than or equal to 2.4:1; wherein the semiconductor nanocrystal shell comprises a first layer disposed directly on the core, and a second layer disposed on the first layer, the first layer comprising a second semiconductor nanocrystal and the second layer comprising a third semiconductor nanocrystal having a composition different from a composition of the second semiconductor nanocrystal; and wherein the second semiconductor nanocrystal comprises zinc and selenium and not sulfur, and the third semiconductor nanocrystal comprises zinc and sulfur. a core comprising a first semiconductor nanocrystal material comprising zinc, tellurium and selenium; and a semiconductor nanocrystal shell disposed on the core, the semiconductor nanocrystal shell comprising zinc, selenium, and sulfur; wherein the quantum dot does not comprise cadmium; wherein in the quantum dot, a mole ratio of sulfur with respect to selenium is less than or equal to 2.4:1; wherein the semiconductor nanocrystal shell comprises a first layer disposed directly on the core, and a second layer disposed on the first layer, the first layer comprising a second semiconductor nanocrystal and the second layer comprising a third semiconductor nanocrystal having a composition different from a composition of the second semiconductor nanocrystal; and wherein the second semiconductor nanocrystal comprises zinc and selenium and not sulfur, and the third semiconductor nanocrystal comprises zinc and sulfur.
Electrical plug connection for electrically connecting a power source in a releasable manner to an electrical work apparatus , - wherein the plug connection comprises at least one first electrical line for the purpose of transmitting an electrical power - and at least one second electrical line for the purpose of transmitting signals, - and the plug connection consists of a plug with a plug body and one or more first plug contacts and of a plug socket with first contact sockets , - and the plug contacts of the electrical power-transmitting first electrical line are arranged within the plug body , characterized - in that the plug contact of the signal-transmitting second electrical line is in the form of an external contact in the region of an external contour of the plug body , - in that a signal-transmitting mating contact of the plug socket is associated with the external contact of the plug body , - and in that the signal-transmitting external contact and the signal-transmitting mating contact form a latching connection , - in that the plug socket has a receiving space in which the plug body is received, - in that the plug socket has a circumferential wall which delimits the receiving space , - in that the signal-transmitting mating contact is situated radially outside the circumferential wall and protrudes, by way of a free contact end , through a receiving slot in the circumferential wall into the receiving space . - wherein the plug connection comprises at least one first electrical line for the purpose of transmitting an electrical power - and at least one second electrical line for the purpose of transmitting signals, - and the plug connection consists of a plug with a plug body and one or more first plug contacts and of a plug socket with first contact sockets , - and the plug contacts of the electrical power-transmitting first electrical line are arranged within the plug body , characterized - in that the plug contact of the signal-transmitting second electrical line is in the form of an external contact in the region of an external contour of the plug body , - in that a signal-transmitting mating contact of the plug socket is associated with the external contact of the plug body , - and in that the signal-transmitting external contact and the signal-transmitting mating contact form a latching connection , - in that the plug socket has a receiving space in which the plug body is received, - in that the plug socket has a circumferential wall which delimits the receiving space , - in that the signal-transmitting mating contact is situated radially outside the circumferential wall and protrudes, by way of a free contact end , through a receiving slot in the circumferential wall into the receiving space .
A household cooking appliance having a load-bearing structure associated to which is a front door of a cooking chamber, and a door-lock device which comprises at least: - a device body , which is fixed to the load-bearing structure ; - a locking member , displaceably mounted in a front region of the device body , the locking member being designed to co-operate with a retention element of a structure of the door which is displaceable with respect to the load-bearing structure ; - an actuation system having actuator means that can be controlled for causing passage of the locking member between an inoperative position, in which the locking member is not engaged to the retention element , and an operative position, in which the locking member is engaged to the retention element , wherein the device body is fixed to the load-bearing structure at a passage of a front frame and extends longitudinally in a direction generally transverse to said front frame , wherein the device body is fixed at a front thereof to the front frame so as to be supported substantially in cantilever fashion by the frame itself towards the inside of the load-bearing structure , characterised in that the front of the device body has a plate portion that extends generally vertically, with a front surface designed to rest against a corresponding first portion of a rear side of the front frame , the plate portion having through holes for respective members for fixing to the front frame , wherein the front of the device body has an upper portion that extends forwards with respect to the plate portion , with a lower surface designed to face a corresponding second portion of the rear side of the front frame . - a device body , which is fixed to the load-bearing structure ; - a locking member , displaceably mounted in a front region of the device body , the locking member being designed to co-operate with a retention element of a structure of the door which is displaceable with respect to the load-bearing structure ; - an actuation system having actuator means that can be controlled for causing passage of the locking member between an inoperative position, in which the locking member is not engaged to the retention element , and an operative position, in which the locking member is engaged to the retention element ,
Window arrangement for a rail vehicle, having at least one open position, a closed position and a transportation position for a window panel , which is arranged in a movable sliding frame , - in the case of which the movable sliding frame is arranged in a window-guiding frame , - in the case of which the window panel has a larger surface area than the associated window opening of the window-guiding frame , characterized - in that the sliding frame has an integrated transportation lock , wherein, for this purpose, an aperture in the form of a screw mount is introduced directly when the metal sheet for producing the sliding frame is being machined by laser cutting, - in that , in the transportation position of the sliding frame , the integrated transportation lock can be connected to the window-guiding frame , - in that , in the transportation position, the integrated transportation lock can be screwed to the window-guiding frame . - in the case of which the movable sliding frame is arranged in a window-guiding frame , - in the case of which the window panel has a larger surface area than the associated window opening of the window-guiding frame , - in that the sliding frame has an integrated transportation lock , wherein, for this purpose, an aperture in the form of a screw mount is introduced directly when the metal sheet for producing the sliding frame is being machined by laser cutting, - in that , in the transportation position of the sliding frame , the integrated transportation lock can be connected to the window-guiding frame , - in that , in the transportation position, the integrated transportation lock can be screwed to the window-guiding frame .
A conjugate of a chemotherapeutic agent and an amino acid, wherein the amino acid is selected from the group consisting of aspartic acid, glutamic acid, asparagine and glutamine; and the chemotherapeutic agent is an antimetabolite, wherein the antimetabolite is covalently attached to the side chain of the amino acid.
A head-up display device (H) mounted to an instrument panel (PNL) of a vehicle, comprising housing display means for emitting display light (L) to a chassis which has a substantially rectangular light transmissive cover having a curved surface, the head-up display device (H) emitting from the light transmissive cover the display light that has been emitted from the display means , wherein the curved surface of the light transmissive cover is curved so that a front side (42CF42OF) is lower than a back side (42CB42OB) and is inclined in leftward and rightward directions and inward and outward directions of the vehicle so that a corner of the curved surface is lowest, characterised by an inclination in the leftward and rightward directions and the inward and outward directions of the curved surface is inclined so that a side of the cover towards a lateral outside of the vehicle (42OF42OB) is lower than a side of the cover towards a lateral inside of the vehicle (42CF42CB), and in that the head up display device further comprises water discharge means provided at a periphery of the corner which is lowest of the curved surface, the water discharge means being intended to discharge water to the outside so as not to allow liquid to be accumulated on the light transmissive cover .
A method of reducing the concentration of an active pharmaceutical ingredient (API) in used fish treatment water; wherein said treatment water is fresh water, brackish water or salt water, and wherein: (a) the API is a parasiticide selected from the group consisting of a benzoylurea, an avermectin, an organophosphate, and a pyrethroid for use in the treatment of fish; and, (b) the method comprises filtering the water using a microfilter having a pore size in the range of 0.1-7 μm; and wherein overall filtration efficiency is greater than 10%; and wherein the microfilter is comprised of a material selected from paper, a polymer, stainless steel, ceramic, or a microporous membrane; and wherein a pretreatment agent is added to the water prior to a prefiltration step with a filter having a pore size in the range of 10-200μm. (a) the API is a parasiticide selected from the group consisting of a benzoylurea, an avermectin, an organophosphate, and a pyrethroid for use in the treatment of fish; and, (b) the method comprises filtering the water using a microfilter having a pore size in the range of 0.1-7 μm;
A power supply comprising: a source steering diode configured to unidirectionally conduct DC electrical energy received from a source to a bulk capacitor where the conducted DC electrical energy is stored at a first voltage differential across the bulk capacitor; a transformer having a source winding , a load winding (18L 1 ), and a holdup winding , the load winding configured to provide electrical power to a load connected thereto; a switching regulator configured to provide, in response to a signal (S FB ) indicative of the electrical power provided to the load, switched current to the source winding of the transformer, the switched current drawn from the bulk capacitor; a holdup circuit coupled to the holdup winding of the transformer, the holdup circuit configured to store DC electrical energy on a holdup capacitor , the DC electrical energy stored at a second voltage differential across the holdup capacitor, the second voltage differential greater than the first voltage differential; and a switching circuit configured to selectively transfer, in response to the first voltage differential falling below a predetermined threshold, the DC electrical energy stored on the holdup capacitor to the bulk capacitor; the power supply characterised in that the switching circuit comprises a one-shot configured to define a time period during which the DC electrical energy stored on the holdup capacitor is selectively transferred to the bulk capacitor. a source steering diode configured to unidirectionally conduct DC electrical energy received from a source to a bulk capacitor where the conducted DC electrical energy is stored at a first voltage differential across the bulk capacitor; a transformer having a source winding , a load winding (18L 1 ), and a holdup winding , the load winding configured to provide electrical power to a load connected thereto; a switching regulator configured to provide, in response to a signal (S FB ) indicative of the electrical power provided to the load, switched current to the source winding of the transformer, the switched current drawn from the bulk capacitor; a holdup circuit coupled to the holdup winding of the transformer, the holdup circuit configured to store DC electrical energy on a holdup capacitor , the DC electrical energy stored at a second voltage differential across the holdup capacitor, the second voltage differential greater than the first voltage differential; and a switching circuit configured to selectively transfer, in response to the first voltage differential falling below a predetermined threshold, the DC electrical energy stored on the holdup capacitor to the bulk capacitor;
A method of manipulating an electron or ion beam propagating along an optical axis, the method comprising: generating the beam by a beam source ; transmitting the beam through a phase mask positioned in front of a beam focusing system with respect to the direction of propagation, said phase mask being selected to spatially modulate a phase of a wavefront of the source beam over a cross-section thereof, to at least partially compensate for aberration generated by said beam focusing system; and applying a multipole electromagnetic field to the beam so as to also at least partially compensate for said aberrations; wherein said compensation by said multipole electromagnetic field is complementary to said compensation by said phase mask. generating the beam by a beam source ; transmitting the beam through a phase mask positioned in front of a beam focusing system with respect to the direction of propagation, said phase mask being selected to spatially modulate a phase of a wavefront of the source beam over a cross-section thereof, to at least partially compensate for aberration generated by said beam focusing system; and applying a multipole electromagnetic field to the beam so as to also at least partially compensate for said aberrations; wherein said compensation by said multipole electromagnetic field is complementary to said compensation by said phase mask.
An apparatus for dynamically scheduling a digital storage backup, comprising: at least one processor adapted to determine at least one backup parameter for a backup of a plurality of data blocks of a monitored non transitory storage , comprising: compute a storage classification for said plurality of data blocks according to a compliance of an amount of changes to a content of said plurality of data blocks with one or more threshold values, wherein the storage classification comprises an indication as to whether to back up the data blocks of the storage; and determine said at least one backup parameter according to said classification, wherein said at least one backup parameter is a member of a group comprising: identification numbers of a plurality of said plurality of data blocks and a time to perform said backup; wherein said at least one processor is further adapted to: create a snapshot of said monitored non transitory storage; and produce said amount of changes from said snapshot, wherein said at least one processor produces said amount of changes from said snapshot using machine metadata describing one or more changes to the storage volume layout. compute a storage classification for said plurality of data blocks according to a compliance of an amount of changes to a content of said plurality of data blocks with one or more threshold values, wherein the storage classification comprises an indication as to whether to back up the data blocks of the storage; and determine said at least one backup parameter according to said classification, wherein said at least one backup parameter is a member of a group comprising: identification numbers of a plurality of said plurality of data blocks and a time to perform said backup; wherein said at least one processor is further adapted to: create a snapshot of said monitored non transitory storage; and produce said amount of changes from said snapshot, wherein said at least one processor produces said amount of changes from said snapshot using machine metadata describing one or more changes to the storage volume layout. create a snapshot of said monitored non transitory storage; and produce said amount of changes from said snapshot, wherein said at least one processor produces said amount of changes from said snapshot using machine metadata describing one or more changes to the storage volume layout.
An implantable medical device intended to be implanted into a atrial heart wall comprising successively an endocardium (EC), a myocardium (MYO) and a visceral pericardium (PCV), the device comprising: - a device body with a front face at its distal end; and - a means for anchoring the medical device to said heart wall (EC, MYO, PCV), wherein the means for anchoring includes a screw with a helix wire wound into a plurality of non-contiguous turns , the screw having a clamped end integral with the front face of the device body and a free end comprising a beveled end defined by at least one oblique surface , characterised in that the helix wire of the screw is a wire that is deformable in bending, and in that the screw comprises, at its free distal end, a terminal region whose helix wire bending stiffness is lower than in a proximal region of the turns of the screw , whereby, during a screwing into an atrial heart wall , once the visceral pericardium (PCV) reached, the terminal region at the free distal end of the screw is deformed according to a non-helical geometry, without piercing of the visceral pericardium (PCV). - a device body with a front face at its distal end; and - a means for anchoring the medical device to said heart wall (EC, MYO, PCV), wherein the means for anchoring includes a screw with a helix wire wound into a plurality of non-contiguous turns , the screw having a clamped end integral with the front face of the device body and a free end comprising a beveled end defined by at least one oblique surface , characterised in that the helix wire of the screw is a wire that is deformable in bending, and in that the screw comprises, at its free distal end, a terminal region whose helix wire bending stiffness is lower than in a proximal region of the turns of the screw , whereby, during a screwing into an atrial heart wall , once the visceral pericardium (PCV) reached, the terminal region at the free distal end of the screw is deformed according to a non-helical geometry, without piercing of the visceral pericardium (PCV).