mhurhangee/ep-ind-claims huggingface dataset:
A saddle type vehicle comprising: a vehicle body frame; a rear wheel (Wr) supported by the vehicle body frame; a rear cover disposed beside the vehicle body frame and at least a portion of which is disposed above the rear wheel (Wr) when the vehicle is viewed laterally and; a rear flasher at least a portion of which is disposed at the rear cover; the rear cover includes: a flasher opening at which the rear flasher is disposed; an upper rear cover defining at least an upper edge of the flasher opening; a lower rear cover defining at least a lower edge of the flasher opening and formed structurally-independently of the upper rear cover; and fixing portions (101a to 101c, 102a to 102c, 103a, 103c) by which the upper rear cover and the lower rear cover are fixed together; the rear flasher is attached to the fixing portions (101a to 101c, 102a to 102c, 103a, 103c); the saddle type vehicle further comprising a taillight disposed inside a light opening being open at an outer surface of the rear cover, characterized in that the taillight is positioned behind the rear flasher when the vehicle is viewed laterally and the rear flasher is separated from the taillight by a portion of the rear cover disposed between the rear flasher and the taillight. a vehicle body frame; a rear wheel (Wr) supported by the vehicle body frame; a rear cover disposed beside the vehicle body frame and at least a portion of which is disposed above the rear wheel (Wr) when the vehicle is viewed laterally and; a rear flasher at least a portion of which is disposed at the rear cover; the rear cover includes: a flasher opening at which the rear flasher is disposed; an upper rear cover defining at least an upper edge of the flasher opening; a lower rear cover defining at least a lower edge of the flasher opening and formed structurally-independently of the upper rear cover; and fixing portions (101a to 101c, 102a to 102c, 103a, 103c) by which the upper rear cover and the lower rear cover are fixed together; a flasher opening at which the rear flasher is disposed; an upper rear cover defining at least an upper edge of the flasher opening; a lower rear cover defining at least a lower edge of the flasher opening and formed structurally-independently of the upper rear cover; and fixing portions (101a to 101c, 102a to 102c, 103a, 103c) by which the upper rear cover and the lower rear cover are fixed together; the rear flasher is attached to the fixing portions (101a to 101c, 102a to 102c, 103a, 103c); the saddle type vehicle further comprising a taillight disposed inside a light opening being open at an outer surface of the rear cover, characterized in that the taillight is positioned behind the rear flasher when the vehicle is viewed laterally and the rear flasher is separated from the taillight by a portion of the rear cover disposed between the rear flasher and the taillight.
A method for switching from a device-to-device, D2D, connection to a base station-to-device, B2D, connection, in a wireless communication system, the method comprising: receiving, by a first device, a paging message from a base station to wake up the first device, wherein the base station and the first device are in a radio resource control, RRC, idle state, wherein a second device is in an RRC connected state; performing, by the first device and the base station, an RRC connection establishment procedure with the base station to transit the first device and the base station into the RRC connected state; performing, by the first device and the base station, an RRC connection complete procedure with the base station; receiving, by the first device, a B2D switch request message from the base station, wherein the B2D switch request message includes information on the second device, a switch unit and when to switch from the D2D connection to the B2D connection; transmitting, by the first device, a B2D switch response message to the base station as a response to the B2D switch request message, thereby connecting the first device and the second device through the B2D connection; releasing, by the first device, the D2D connection per flow or per bearer or for all flows according to the switch unit; and receiving, by the first device, data traffic from the second device, wherein the base station delivers the data traffic to the first device. receiving, by a first device, a paging message from a base station to wake up the first device, wherein the base station and the first device are in a radio resource control, RRC, idle state, wherein a second device is in an RRC connected state; performing, by the first device and the base station, an RRC connection establishment procedure with the base station to transit the first device and the base station into the RRC connected state; performing, by the first device and the base station, an RRC connection complete procedure with the base station; receiving, by the first device, a B2D switch request message from the base station, wherein the B2D switch request message includes information on the second device, a switch unit and when to switch from the D2D connection to the B2D connection; transmitting, by the first device, a B2D switch response message to the base station as a response to the B2D switch request message, thereby connecting the first device and the second device through the B2D connection; releasing, by the first device, the D2D connection per flow or per bearer or for all flows according to the switch unit; and receiving, by the first device, data traffic from the second device, wherein the base station delivers the data traffic to the first device.
An apparatus for use with an induction heating element, the apparatus comprising: a ferromagnetic base arranged to convert magnetic energy from said induction heating element into thermal energy; an induction coil arranged to convert magnetic energy from said induction heating element into electrical energy; a waterproof housing containing: an electronic circuit conductively coupled to the induction coil; and a motor controlled by said electronic circuit using said electrical energy; and an agitator driven by said motor, characterized in that the induction coil is exposed to said magnetic energy through an aperture within said ferromagnetic base or by the induction coil being mounted around the ferromagnetic base. a ferromagnetic base arranged to convert magnetic energy from said induction heating element into thermal energy; an induction coil arranged to convert magnetic energy from said induction heating element into electrical energy; a waterproof housing containing: an electronic circuit conductively coupled to the induction coil; and a motor controlled by said electronic circuit using said electrical energy; and an agitator driven by said motor, characterized in that the induction coil is exposed to said magnetic energy through an aperture within said ferromagnetic base or by the induction coil being mounted around the ferromagnetic base. a motor controlled by said electronic circuit using said electrical energy; and an agitator driven by said motor, characterized in that the induction coil is exposed to said magnetic energy through an aperture within said ferromagnetic base or by the induction coil being mounted around the ferromagnetic base.
A compensation valve for balancing the pressure of environments, such as a cold room, in which the pressure is different from the pressure of an external environment, such as an environment at atmospheric pressure, the environment at the different pressure to be balanced being bounded by walls, in at least one of which a through hole is provided containing the valve body, this valve body presenting an internal passage opening at one end into the environment at different pressure and communicating via the opposite end with the exterior of said environment, said valve comprising in said passage a valve member presenting two apertures able to connect together said ends (3, 5) of the valve body, a movable interception panel being located on each of said apertures, each aperture being provided within a corresponding zone of the valve member, said zone being disposed in a plane within the passage of the valve body, said plane being perpendicular to the wall in which the valve is positioned, said movable panel being provided on the aperture of the corresponding zone, said panel being hinged along an edge of the zone defining this aperture, characterised in that the valve member comprises a first and second portion (9, 10) which are identical and disposed symmetrically to each other, said portions dividing the passage into four "quadrants", each portion (9, 10) comprising a zone with its aperture, each superposed pair of quadrants being alternatively connected via the corresponding aperture to the interior of the environment and to the external environment such as to enable air to flow from the exterior of the environment to its interior or vice versa, the interception panels positioned on the corresponding apertures opening in the same direction about the plane in which said zones lie, each of said panel lying on a horizontal plane that is a plane which is perpendicular to the environment wall when the panel closes said aperture.
Method of producing a pressure-tight hose and fitting assembly suitable for connecting an apparatus to the water mains, said method comprising the following steps: - preparing a pressure-tight flexible hose comprising at least one layer of thermoplastic material (12; 12'; 14) and at least one braided reinforcing layer (13; 13'), said flexible hose having a hose fixing end; - preparing a fitting made of thermoplastic material and having a fitting fixing end in which an annular seat of a size suitable for receiving the hose fixing end is formed; - inserting the hose fixing end inside the annular seat of the fitting; - fastening said hose fixing end to the fitting fixing end by means of spin welding; wherein the annular seat has a bottom surface which defines a stop shoulder for the hose fixing end, a collecting groove opening in the bottom of said bottom surface, said method further comprising: - a step of directing at least part of the thermoplastic material melt during spin welding inside said collecting groove and letting it solidify, thereby forming a solid bridge; wherein one of said at least one layer of thermoplastic material (12, 12', 14) is a first innermost layer of thermoplastic material (12, 12') of said pressure-tight flexible hose, characterized in that said solid bridge covers, at the hose fixing end, said braided reinforcing layer (13, 13'). - preparing a pressure-tight flexible hose comprising at least one layer of thermoplastic material (12; 12'; 14) and at least one braided reinforcing layer (13; 13'), said flexible hose having a hose fixing end; - preparing a fitting made of thermoplastic material and having a fitting fixing end in which an annular seat of a size suitable for receiving the hose fixing end is formed; - inserting the hose fixing end inside the annular seat of the fitting; - fastening said hose fixing end to the fitting fixing end by means of spin welding; - a step of directing at least part of the thermoplastic material melt during spin welding inside said collecting groove and letting it solidify, thereby forming a solid bridge;
A composition comprising: from 10 wt% to 80 wt% of a polymeric ethylene ionomer; from 10 wt% to 40 wt% of a propylene component including at least one propylene based polymer having a propylene content of at least 50.0 wt%, based on the total weight of the propylene based polymer, and a melt flow rate from 0.5 g/10 min to 50 g/10 min (according to ASTM D-1238 at 230°C/2.16 kg); from 5 wt% to 20 wt% of a crystalline block composite comprising (i) a crystalline ethylene based polymer, (ii) a crystalline alpha-olefin based polymer derived from at least one C 3-10 alpha-olefin, and (iii) a block copolymer comprising a crystalline ethylene block and a crystalline alpha-olefin block, the crystalline ethylene block of the block copolymer having the same composition as the crystalline ethylene based polymer of the crystalline block composite, and the crystalline alpha-olefin block of the block copolymer having the same composition as the crystalline alpha-olefin based polymer of the crystalline block composite. from 10 wt% to 80 wt% of a polymeric ethylene ionomer; from 10 wt% to 40 wt% of a propylene component including at least one propylene based polymer having a propylene content of at least 50.0 wt%, based on the total weight of the propylene based polymer, and a melt flow rate from 0.5 g/10 min to 50 g/10 min (according to ASTM D-1238 at 230°C/2.16 kg); from 5 wt% to 20 wt% of a crystalline block composite comprising (i) a crystalline ethylene based polymer, (ii) a crystalline alpha-olefin based polymer derived from at least one C 3-10 alpha-olefin, and (iii) a block copolymer comprising a crystalline ethylene block and a crystalline alpha-olefin block, the crystalline ethylene block of the block copolymer having the same composition as the crystalline ethylene based polymer of the crystalline block composite, and the crystalline alpha-olefin block of the block copolymer having the same composition as the crystalline alpha-olefin based polymer of the crystalline block composite.
Hinged closure lid made of plastic with tamper-evident indicator for placing onto a container, with a main part which has a dispenser opening, a lid which is mounted pivotably on the main part and, in a closure position resting on the main part, closes the dispenser opening, and an actuating part which is connected integrally to the main part and is mounted thereon so as to be adjustable between an inoperative position and an actuating position, wherein the lid is adjustable from the closure position in the direction of an open position when the actuating part is in the actuating position, characterized in that the actuating part is connected to the main part only via at least one flexible web serving as a predetermined breaking point, wherein the web serves as said tamper-evident indicator by being destructible when the actuating part is first adjusted into the actuating position, wherein said actuating part is released from said main part, when said web is destroyed, but is held adjustably thereon and is therefore mounted in a floating manner.
A transfer device for transferring a fine transfer pattern formed on a mold to a molding target, the transfer device comprising: a base member including a first press portion; a moving member including a second press portion, the second press portion sandwiching and pressing the mold and the molding target in cooperation with the first press portion, and the second press portion being provided on the base member so as to move in a direction of approaching or leaving the first press portion; and a supporting body including a guide portion guiding the movement of the moving body, the supporting body being engaged with the base member only in a region of the base member elastically deformed very slightly by reaction force when the press is performed, the region being a region where a flexure angle by the elastic deformation becomes substantially "0", and the supporting body being provided integrally on the base member. a base member including a first press portion; a moving member including a second press portion, the second press portion sandwiching and pressing the mold and the molding target in cooperation with the first press portion, and the second press portion being provided on the base member so as to move in a direction of approaching or leaving the first press portion; and a supporting body including a guide portion guiding the movement of the moving body, the supporting body being engaged with the base member only in a region of the base member elastically deformed very slightly by reaction force when the press is performed, the region being a region where a flexure angle by the elastic deformation becomes substantially "0", and the supporting body being provided integrally on the base member.
A conjugate of formula I: L - (D L) p wherein L is a Ligand unit, D is a Drug Linker unit of formula II: wherein either: (a) R 10 and R 11 form a nitrogen-carbon double bond between the nitrogen and carbon atoms to which they are bound; or (b) R 10 is OH, and R 11 is: p is an integer of from 1 to 20. (a) R 10 and R 11 form a nitrogen-carbon double bond between the nitrogen and carbon atoms to which they are bound; or (b) R 10 is OH, and R 11 is: p is an integer of from 1 to 20.
A positioning device for a medical field generator, comprising: - a base member which comprises at least one contacting section and is configured to contact the upper surface of an operating table; - an adaptor which is connected to the base member, configured to support the field generator, and to prevent the field generator from being positioned at less than a predetermined distance from the operating table; and - fixing means which allow the positioning device to be fixed to an operating table, characterized in that the base member is configured to be ergonomically placed between the upper surface of an operating table and a part of a patient's body lying on the operating table. - a base member which comprises at least one contacting section and is configured to contact the upper surface of an operating table; - an adaptor which is connected to the base member, configured to support the field generator, and to prevent the field generator from being positioned at less than a predetermined distance from the operating table; and - fixing means which allow the positioning device to be fixed to an operating table,
A light emitting device comprising: a light emitting diode comprising a top light emitting surface, an oppositely positioned bottom surface, and side surfaces connecting the top and bottom surfaces; a wavelength converting structure comprising a top light emitting surface, an oppositely positioned bottom surface, and side surfaces connecting the top and bottom surfaces, the wavelength converting structure bottom surface disposed on or adjacent to the light emitting diode top surface; a reflective structure comprising a reflective material disposed on the side surfaces of the light emitting diode and on side surfaces of the wavelength converting structure, the reflective structure comprising a planar top surface arranged adjacent to and parallel to the top surface of the wavelength converting structure, the planar top surface being disposed at a same level as the top surface of the wavelength converting structure or above the top surface of the wavelength converting structure in a vertical direction perpendicular to the planar top surface; and a light absorbing layer positioned on the planar top surface of the reflective structure, and separated from outer edges of the top surface of the wavelength converting phosphor structure by a gap having a width of between 30 microns and 60 microns measured perpendicularly to a side surface of the wavelength converting phosphor structure. a light emitting diode comprising a top light emitting surface, an oppositely positioned bottom surface, and side surfaces connecting the top and bottom surfaces; a wavelength converting structure comprising a top light emitting surface, an oppositely positioned bottom surface, and side surfaces connecting the top and bottom surfaces, the wavelength converting structure bottom surface disposed on or adjacent to the light emitting diode top surface; a reflective structure comprising a reflective material disposed on the side surfaces of the light emitting diode and on side surfaces of the wavelength converting structure, the reflective structure comprising a planar top surface arranged adjacent to and parallel to the top surface of the wavelength converting structure, the planar top surface being disposed at a same level as the top surface of the wavelength converting structure or above the top surface of the wavelength converting structure in a vertical direction perpendicular to the planar top surface; and a light absorbing layer positioned on the planar top surface of the reflective structure, and separated from outer edges of the top surface of the wavelength converting phosphor structure by a gap having a width of between 30 microns and 60 microns measured perpendicularly to a side surface of the wavelength converting phosphor structure.
A liquid ejecting apparatus comprising: a liquid ejecting head that includes a piezoelectric element and ejects a liquid; a first drive signal output circuit that is configured to output a first drive signal (COMB) to drive the piezoelectric element so as to eject the liquid from the liquid ejecting head; a second drive signal output circuit that is configured to output a second drive signal (COMA) to drive the piezoelectric element so as to eject the liquid from the liquid ejecting head; a third drive signal output circuit that is configured to output a third drive signal (COMC), having a smaller voltage amplitude than voltage amplitudes of the first and second drive signals, to drive the piezoelectric element so as not to eject the liquid from the liquid ejecting head; and a first conductive component including a first conductive section that electrically couples the liquid ejecting head to the first drive signal output circuit, a second conductive section that electrically couples the liquid ejecting head to the second drive signal output circuit, and a third conductive section that electrically couples the liquid ejecting head to the third drive signal output circuit, characterised in that the first conductive section is positioned between the second conductive section and the third conductive section. a liquid ejecting head that includes a piezoelectric element and ejects a liquid; a first drive signal output circuit that is configured to output a first drive signal (COMB) to drive the piezoelectric element so as to eject the liquid from the liquid ejecting head; a second drive signal output circuit that is configured to output a second drive signal (COMA) to drive the piezoelectric element so as to eject the liquid from the liquid ejecting head; a third drive signal output circuit that is configured to output a third drive signal (COMC), having a smaller voltage amplitude than voltage amplitudes of the first and second drive signals, to drive the piezoelectric element so as not to eject the liquid from the liquid ejecting head; and a first conductive component including a first conductive section that electrically couples the liquid ejecting head to the first drive signal output circuit, a second conductive section that electrically couples the liquid ejecting head to the second drive signal output circuit, and a third conductive section that electrically couples the liquid ejecting head to the third drive signal output circuit, characterised in that the first conductive section is positioned between the second conductive section and the third conductive section.