mhurhangee/ep-ind-claims huggingface dataset:
An injection molding machine comprising: a mold clamping unit including a stationary platen to which a stationary mold is attached; and a frame that supports the mold clamping unit, wherein the frame has a vertical beam for a stationary platen that supports the load of the stationary platen, and wherein a plurality of the vertical beams (513-1, 513-2) for a stationary platen are lined up in a mold opening/closing direction, characterized in that the height from a placement surface of the stationary platen to an upper end of the stationary platen is defined as A, a mold opening/closing direction distance (L1, L2) between a mold opening/closing direction centerline (C1, C2) of each of the vertical beams (513-1, 513-2) for the stationary platen and a mold opening/closing direction centerline of the stationary platen is equal to or smaller than A, wherein the mold opening/closing direction distance between the mold opening/closing direction centerline of at least one of the vertical beams for the stationary platen and the mold opening/closing direction centerline of the stationary platen is equal to or greater than A/2. a mold clamping unit including a stationary platen to which a stationary mold is attached; and a frame that supports the mold clamping unit, wherein the frame has a vertical beam for a stationary platen that supports the load of the stationary platen, and wherein a plurality of the vertical beams (513-1, 513-2) for a stationary platen are lined up in a mold opening/closing direction, characterized in that the height from a placement surface of the stationary platen to an upper end of the stationary platen is defined as A, a mold opening/closing direction distance (L1, L2) between a mold opening/closing direction centerline (C1, C2) of each of the vertical beams (513-1, 513-2) for the stationary platen and a mold opening/closing direction centerline of the stationary platen is equal to or smaller than A, wherein the mold opening/closing direction distance between the mold opening/closing direction centerline of at least one of the vertical beams for the stationary platen and the mold opening/closing direction centerline of the stationary platen is equal to or greater than A/2.
A composition, comprising at least one immunogen or at least one nucleic acid molecule encoding an immunogen, wherein each at least one immunogen comprises a region A coupled to a region B; wherein region A comprises (i) three copies of amino acid residues 1 to 11 of amyloid-B; (ii) the three copies of (i) and three copies of amino acid residues 2 to 18 of tau; or (iii) the two sets of three copies of (ii) and three copies of amino acid residues 36 to 69 of α-synuclein; and wherein region B comprises PADRE consisting of AKFVAAWTLKAAA (SEQ ID NO:36); P23 consisting of VSIDKFRIFCKANPK (SEQ ID NO: 25); P32 consisting of LKFIIKRYTPNNEIDS (SEQ ID NO: 26); P21 consisting of IREDNNITLKLDRCNN (SEQ ID NO: 27); P30 consisting of FNNFTVSFWLRVPKVSASHLE (SEQ ID NO: 28); P2 consisting of QYIKANSKFIGITE (SEQ ID NO: 29); HBVnc consisting of PHHTALRQAILCWGELMTLA (SEQ ID NO: 33); HbsAg consisting of FFLLTRILTIPQSLD (SEQ ID NO: 34); MT consisting of YSGPLKAEIAQRLEDV (SEQ ID NO: 35); P7 consisting of NYSLDKIIVDYNLQSKITLP (SEQ ID NO: 32); P17 consisting of LINSTKIYSYFPSVISKVNQ (SEQ ID NO: 31); and P28 consisting of LEYIPEITLPVIAALSIAES (SEQ ID NO: 30). (i) three copies of amino acid residues 1 to 11 of amyloid-B; (ii) the three copies of (i) and three copies of amino acid residues 2 to 18 of tau; or (iii) the two sets of three copies of (ii) and three copies of amino acid residues 36 to 69 of α-synuclein; and wherein region B comprises PADRE consisting of AKFVAAWTLKAAA (SEQ ID NO:36); P23 consisting of VSIDKFRIFCKANPK (SEQ ID NO: 25); P32 consisting of LKFIIKRYTPNNEIDS (SEQ ID NO: 26); P21 consisting of IREDNNITLKLDRCNN (SEQ ID NO: 27); P30 consisting of FNNFTVSFWLRVPKVSASHLE (SEQ ID NO: 28); P2 consisting of QYIKANSKFIGITE (SEQ ID NO: 29); HBVnc consisting of PHHTALRQAILCWGELMTLA (SEQ ID NO: 33); HbsAg consisting of FFLLTRILTIPQSLD (SEQ ID NO: 34); MT consisting of YSGPLKAEIAQRLEDV (SEQ ID NO: 35); P7 consisting of NYSLDKIIVDYNLQSKITLP (SEQ ID NO: 32); P17 consisting of LINSTKIYSYFPSVISKVNQ (SEQ ID NO: 31); and P28 consisting of LEYIPEITLPVIAALSIAES (SEQ ID NO: 30). PADRE consisting of AKFVAAWTLKAAA (SEQ ID NO:36); P23 consisting of VSIDKFRIFCKANPK (SEQ ID NO: 25); P32 consisting of LKFIIKRYTPNNEIDS (SEQ ID NO: 26); P21 consisting of IREDNNITLKLDRCNN (SEQ ID NO: 27); P30 consisting of FNNFTVSFWLRVPKVSASHLE (SEQ ID NO: 28); P2 consisting of QYIKANSKFIGITE (SEQ ID NO: 29); HBVnc consisting of PHHTALRQAILCWGELMTLA (SEQ ID NO: 33); HbsAg consisting of FFLLTRILTIPQSLD (SEQ ID NO: 34); MT consisting of YSGPLKAEIAQRLEDV (SEQ ID NO: 35); P7 consisting of NYSLDKIIVDYNLQSKITLP (SEQ ID NO: 32); P17 consisting of LINSTKIYSYFPSVISKVNQ (SEQ ID NO: 31); and P28 consisting of LEYIPEITLPVIAALSIAES (SEQ ID NO: 30).
A distributed feedback laser diode, comprising a layered structure applied to a crystalline substrate and including a lower n -type optical cladding, a lower waveguide, an active area, an upper waveguide, an electron blocking layer and an upper p-type optical cladding, and having a mesa on top with a periodic refractive index contrast area comprising periodically distributed longitudinal grooves, wherein the constituent elements of the layered structure are made of group III nitrides, characterized in that the upper p -type optical cladding has, in the area of the mesa, a tunnel junction covered from the top by an n -type current spreading layer, wherein the longitudinal grooves of the periodic refractive index contrast area are distributed parallel to one another in the outer surface of the n -type current spreading layer and running through the entire width of the mesa.
Modular personal protection device to be installed on a protective helmet for the protection of the face and if necessary the lateral parts up to the nape, the eyes and the throat. The device is characterized by: • a three-dimensional element consisting of a continuous perimeter frame and internal crosspieces connected to the frame, to form a grid consisting of meshes having sides/dimensions of length greater than or equal (≥) to 0.5 cm, minimum surface of 0.25 cm 2 and maximum density of 4 meshes/cm 2 equipped with padding (3, 4 and 5) for impact protection with bodies having a certain energy and size, typically greater than 0.5 cm, such as tools, manufactured articles etc; • if required, transparent screens and/or thick meshed grids, to extend protection also towards smaller bodies and chemical, thermal and optical risks; • sufficiently large dimensions so as to allow the protection of the side parts of the face up to the nape, throat, ears and eyes, or smaller dimensions if there are fewer areas to protect; • conformation of the wide device so as to allow the simultaneous use of devices such as glasses, filtered masks, ear protection headphones, etc; • automatic opening/closing device. • a three-dimensional element consisting of a continuous perimeter frame and internal crosspieces connected to the frame, to form a grid consisting of meshes having sides/dimensions of length greater than or equal (≥) to 0.5 cm, minimum surface of 0.25 cm 2 and maximum density of 4 meshes/cm 2 equipped with padding (3, 4 and 5) for impact protection with bodies having a certain energy and size, typically greater than 0.5 cm, such as tools, manufactured articles etc; • if required, transparent screens and/or thick meshed grids, to extend protection also towards smaller bodies and chemical, thermal and optical risks; • sufficiently large dimensions so as to allow the protection of the side parts of the face up to the nape, throat, ears and eyes, or smaller dimensions if there are fewer areas to protect; • conformation of the wide device so as to allow the simultaneous use of devices such as glasses, filtered masks, ear protection headphones, etc; • automatic opening/closing device.
A method of designing a mass-customized orthopedic implant comprising: identifying features of each bone in a statistical atlas population of bones, where the features comprise at least one of landmarks and shape features; generating curvature and dimension descriptors relevant to implant design for each bone in the statistical atlas population of bones using the identified features; statistically analyzing the descriptors for each bone in the statistical atlas population of bones and grouping each bone in the statistical atlas population into one of a plurality of groups identified based at least in part upon the statistical analysis of the descriptors, where each group has similar descriptors; parameterizing at least one of the groups to extract parameters from the respective at least one of the groups; and, generating an electronic design file for a mass-customized orthopedic implant for the at least one of the groups using the extracted parameters for the respective at least one of the groups. identifying features of each bone in a statistical atlas population of bones, where the features comprise at least one of landmarks and shape features; generating curvature and dimension descriptors relevant to implant design for each bone in the statistical atlas population of bones using the identified features; statistically analyzing the descriptors for each bone in the statistical atlas population of bones and grouping each bone in the statistical atlas population into one of a plurality of groups identified based at least in part upon the statistical analysis of the descriptors, where each group has similar descriptors; parameterizing at least one of the groups to extract parameters from the respective at least one of the groups; and, generating an electronic design file for a mass-customized orthopedic implant for the at least one of the groups using the extracted parameters for the respective at least one of the groups.
A method for wireless communication, comprising: receiving, from a base station, power reservation information for transmission time intervals, TTIs, to be used with a set of component carriers, CCs, of a carrier aggregation, CA, mode; categorizing, by TTI duration, the TTIs of the set of CCs into respective groups of TTIs; identifying a reserved power for each respective group of TTIs of the set of CCs based on the received power reservation information; determining a maximum transmit power limit based at least in part on a sum of the reserved powers; dropping a transmission based at least in part on the length of a first TTI of the TTIs; and allocating the transmit power based at least in part on the dropping and transmitting during the TTIs of the set of CCs using the allocated transmit power that is less than the determined maximum transmit power limit. receiving, from a base station, power reservation information for transmission time intervals, TTIs, to be used with a set of component carriers, CCs, of a carrier aggregation, CA, mode; categorizing, by TTI duration, the TTIs of the set of CCs into respective groups of TTIs; identifying a reserved power for each respective group of TTIs of the set of CCs based on the received power reservation information; determining a maximum transmit power limit based at least in part on a sum of the reserved powers; dropping a transmission based at least in part on the length of a first TTI of the TTIs; and allocating the transmit power based at least in part on the dropping and transmitting during the TTIs of the set of CCs using the allocated transmit power that is less than the determined maximum transmit power limit.
A grid system for a suspended ceiling, the grid system comprising at least one main runner (1 a, 1 b, 1 c) comprising an aperture, at least one cross spacer comprising a slot, wherein the at least one cross spacer is shaped as a channel, with the slot formed from the bottom side of the channel, and a fixing element, wherein said at least one main runner (1 a, 1b, 1 c) is insertable into the slot in said at least one cross spacer from a first side of said at least one cross spacer such that, when the main runner (1 a, 1 b, 1 c) is inserted into said slot, the aperture of the main runner (1 a, 1 b, 1 c) is at least partly accessible from a second side of said at least one cross spacer inside the channel shaped cross spacer, the second side being opposite to the first side, characterised in that said at least one cross spacer further comprises an aperture, and that the fixing element is adapted to, in a locked position, extend through the aperture in the main runner (1 a, 1 b, 1 c) and through the aperture in the cross spacer such that the relative position of the main runner (1 a, 1 b, 1 c) and the cross spacer is fixed.
Apparatus (101, 201, 301) for monitoring a network traffic arriving at a signal box of a railway operating system via a communication network, characterised by a network TAP for reading the network traffic arriving at the signal box via the communication network and for outputting the read arriving network traffic to a processor for checking the read arriving network traffic and a network separating device for separating the signal box from the communication network, wherein the processor is configured, on the basis of a result of the checking of the read arriving network traffic to control the network separating device such that the network separating device separates the signal box from the communication network and wherein the processor for checking the read arriving network traffic is configured to check a command stream included by the read arriving network traffic for disallowed commands and, on recognition of a disallowed command, to control the network separating device such that the network separating device separates the signal box from the communication network. characterised by a network TAP for reading the network traffic arriving at the signal box via the communication network and for outputting the read arriving network traffic to a processor for checking the read arriving network traffic and a network separating device for separating the signal box from the communication network, wherein the processor is configured, on the basis of a result of the checking of the read arriving network traffic to control the network separating device such that the network separating device separates the signal box from the communication network and wherein the processor for checking the read arriving network traffic is configured to check a command stream included by the read arriving network traffic for disallowed commands and, on recognition of a disallowed command, to control the network separating device such that the network separating device separates the signal box from the communication network.
A surface cleaning apparatus, comprising: a housing including an upright handle assembly and a base operably coupled to the upright handle assembly and adapted for movement across a surface to be cleaned; an agitator mounted within the base; a suction source; a suction nozzle assembly provided on the base and defining a suction nozzle in fluid communication with the suction source; a fluid delivery system provided on the housing and comprising: a fluid supply chamber adapted to hold a supply of liquid; a fluid dispenser provided on the base in fluid communication with the fluid supply chamber; and a fluid delivery pathway between the fluid supply chamber and the fluid dispenser; and characterized in that it comprises a dual wiper configuration provided with the base and comprising a first wiper adapted to contact the agitator and a second wiper adapted to contact the surface to be cleaned. a housing including an upright handle assembly and a base operably coupled to the upright handle assembly and adapted for movement across a surface to be cleaned; an agitator mounted within the base; a suction source; a suction nozzle assembly provided on the base and defining a suction nozzle in fluid communication with the suction source; a fluid delivery system provided on the housing and comprising: a fluid supply chamber adapted to hold a supply of liquid; a fluid dispenser provided on the base in fluid communication with the fluid supply chamber; and a fluid delivery pathway between the fluid supply chamber and the fluid dispenser; and characterized in that it comprises a dual wiper configuration provided with the base and comprising a first wiper adapted to contact the agitator and a second wiper adapted to contact the surface to be cleaned. a fluid supply chamber adapted to hold a supply of liquid; a fluid dispenser provided on the base in fluid communication with the fluid supply chamber; and a fluid delivery pathway between the fluid supply chamber and the fluid dispenser; and characterized in that it comprises a dual wiper configuration provided with the base and comprising a first wiper adapted to contact the agitator and a second wiper adapted to contact the surface to be cleaned.
A method for producing pigment nanoparticles, wherein a fluid to be processed comprises a first fluid and a second fluid, wherein the method comprises maintaining a minute space of 1 mm or less between two processing surfaces (1, 2) capable of approaching to and separating from each other, at least one of which rotates relative to the other, allowing the minute space maintained between the two processing surfaces (1, 2) to serve as a flow path of a first fluid thereby forming a forced thin film of the first fluid and separating pigment nanoparticles in the forced thin film; wherein the first processing surface and the second processing surface are circular and the center side of the first processing surface and the second processing surface is an upstream side, and an outer side is a downstream side; at least one of the first processing surface and the second processing surface is formed with groove-like depressions extending from upstream to downstream, the first fluid is introduced into the space between the first processing surface and the second processing surface by micro-pump effect by rotation of the at least one processing surface provided with the groove-like depressions; another introduction path, independent of the flow path through which the first fluid is passed, is provided; at least one opening leading to the another introduction path is arranged in at least either the two processing surfaces (1, 2), and wherein the second fluid is introduced from the another introduction path into between both of the processing surfaces (1, 2), wherein the opening is at a predetermined angle (θ2) facing the rotation direction from a reference line (g) in the outward direction and in the radial direction passing through the opening, wherein the predetermined angle (θ2) is arranged at more than 0° and less than 90°, wherein the direction of introduction of the another introduction path from the opening of the second processing surface is inclined at a predetermined elevation angle (θ1) relative to the second processing surface, wherein the elevation angle (θ1) is arranged at more than 0° and less than 90°; the at least one opening is positioned downstream at a point where a direction of flow of the first fluid is changed to a direction of flow of the spiral laminar flow formed between the processing surfaces (1, 2); the second fluid being introduced in the direction in which a component on the processing surface is made apart in the radial direction and in the direction in which the component is forwarded in the rotation direction of the fluid between the relatively rotating processing surfaces (1, 2); and wherein the pigment nanoparticles are produced by an acid pasting reaction between the two processing surfaces (1, 2).
A substantially cylindrical tool in which is disposed an antenna, said antenna being configured to create or detect a magnetic field and comprising hole antenna elements (31, 32) comprising: (a) a substantially round hole disposed in the wall of said tool on a chord in a plane perpendicular to said major axis of said tool; (b) a ferromagnetic rod disposed within said hole; (c) non-conducting inserts terminating each end of said hole; (d) a slit extending radially outward between said hole and an outer surface of said tool; and (e) at least one antenna wire (40, 42) with a first antenna wire section substantially parallel to said major axis of said tool and traversing said slit perpendicular to said slit. (a) a substantially round hole disposed in the wall of said tool on a chord in a plane perpendicular to said major axis of said tool; (b) a ferromagnetic rod disposed within said hole; (c) non-conducting inserts terminating each end of said hole; (d) a slit extending radially outward between said hole and an outer surface of said tool; and (e) at least one antenna wire (40, 42) with a first antenna wire section substantially parallel to said major axis of said tool and traversing said slit perpendicular to said slit.
A cooling device comprising a refrigeration volume wherein the foodstuffs to be cooled are placed, at least one body having an outer wall separating the refrigeration volume from the outside environment and an inner wall with heat insulating material injected between itself and the outer wall, a compressor providing to compress the refrigerant and a condenser - providing the refrigerant leaving the compressor as superheated vapor to change to liquid phase by condensing, - having more than one horizontal arm extending parallel to each other in the vertical plane, formed by bending a pipe in serpentine shape, more than one first vertical arm parallel to each other, extending vertical to the horizontal arm and parallel to the outer wall on the surface of the horizontal arm facing the outer wall and more than one second vertical arm parallel to each other, extending vertical to the horizontal arm and parallel to the outer wall on the surface of the horizontal arm facing the outside environment, wherein at least one connection member - providing the condenser to be attached to the outer wall - having a base, at least one retainer, disposed on the rear surface of the base, embedded between the outer wall and the inner wall by being anchored into the outer wall, a horizontal channel disposed on the front surface of the base wherein the horizontal arm is seated, characterized by at least one vertical channel (14, 114, 214) extending vertical to the horizontal channel, wherein the first vertical arm and the second vertical arm are seated. - providing the refrigerant leaving the compressor as superheated vapor to change to liquid phase by condensing, - having more than one horizontal arm extending parallel to each other in the vertical plane, formed by bending a pipe in serpentine shape, more than one first vertical arm parallel to each other, extending vertical to the horizontal arm and parallel to the outer wall on the surface of the horizontal arm facing the outer wall and more than one second vertical arm parallel to each other, extending vertical to the horizontal arm and parallel to the outer wall on the surface of the horizontal arm facing the outside environment, - providing the condenser to be attached to the outer wall - having a base, at least one retainer, disposed on the rear surface of the base, embedded between the outer wall and the inner wall by being anchored into the outer wall, a horizontal channel disposed on the front surface of the base wherein the horizontal arm is seated, characterized by at least one vertical channel (14, 114, 214) extending vertical to the horizontal channel, wherein the first vertical arm and the second vertical arm are seated.