mhurhangee/ep-ind-claims huggingface dataset:
A robot controller configured to control a motor of a robot, the robot controller comprising: a housing accommodating a heat generating part (37, 38) that generates heat; a vent hole that is open on a first wall of the housing; a first fan configured to supply air, introduced through the vent hole into the housing, to the heat generating part; and a lid part configured to cover the vent hole, characterized in that: a second wall of the housing is made of a material having high heat conductivity, the heat generating part being fixed to the second wall; the robot controller further comprises a cover covering the second wall and including an opening portion and a second fan configured to supply the air to an inside of the cover through the opening portion; and the second fan is arranged so as to be opposed to the lid part and the opening portion and supplies the air to the lid part and the inside of the cover. the robot controller comprising: a housing accommodating a heat generating part (37, 38) that generates heat; a vent hole that is open on a first wall of the housing; a first fan configured to supply air, introduced through the vent hole into the housing, to the heat generating part; and a lid part configured to cover the vent hole, a housing accommodating a heat generating part (37, 38) that generates heat; a vent hole that is open on a first wall of the housing; a first fan configured to supply air, introduced through the vent hole into the housing, to the heat generating part; and a lid part configured to cover the vent hole, characterized in that: a second wall of the housing is made of a material having high heat conductivity, the heat generating part being fixed to the second wall; the robot controller further comprises a cover covering the second wall and including an opening portion and a second fan configured to supply the air to an inside of the cover through the opening portion; and the second fan is arranged so as to be opposed to the lid part and the opening portion and supplies the air to the lid part and the inside of the cover. a second wall of the housing is made of a material having high heat conductivity, the heat generating part being fixed to the second wall; the robot controller further comprises a cover covering the second wall and including an opening portion and a second fan configured to supply the air to an inside of the cover through the opening portion; and a cover covering the second wall and including an opening portion and a second fan configured to supply the air to an inside of the cover through the opening portion; and the second fan is arranged so as to be opposed to the lid part and the opening portion and supplies the air to the lid part and the inside of the cover.
A blind comprising: a first shield under a pressure that urges the first shield in any one direction of a lifting direction and a lowering direction; a second shield under a pressure that urges the second shield in any one direction of a lifting direction and a lowering direction; a first driving shaft rotatably supported and connected to the first shield such that its rotational direction corresponds to lifting/lowering of the first shield; a second driving shaft rotatably supported and connected to the second shield such that its rotational direction corresponds to lifting/lowering of the second shield; a first stopper capable of shifting between a state of allowing rotation of the first driving shaft in the urged direction of the first shield and a state of restricting the rotation of the first driving shaft; and a second stopper capable of shifting between a state of allowing rotation of the second driving shaft in the urged direction of the second shield and a state of restricting the rotation of the second driving shaft, characterized in that the blind further comprises: an operating shaft capable of rotating upon receiving an operation force; a clutch capable of rotating integrally with the operating shaft and axially sliding on the operating shaft; a first transmission member disposed at one axial side of the clutch to transmit driving force to the first driving shaft; and a second transmission member disposed at the other axial side of the clutch to transmit driving force to the second driving shaft; and wherein the sliding direction of the clutch is determined by the rotational direction of the operating shaft, such that as the clutch sliding on the operating shaft is engaged with one of the transmission members (50, 52), the rotation of the operating shaft is transmitted to any one of the driving shafts (54, 56) through one of the transmission members (50, 52). a first shield under a pressure that urges the first shield in any one direction of a lifting direction and a lowering direction; a second shield under a pressure that urges the second shield in any one direction of a lifting direction and a lowering direction; a first driving shaft rotatably supported and connected to the first shield such that its rotational direction corresponds to lifting/lowering of the first shield; a second driving shaft rotatably supported and connected to the second shield such that its rotational direction corresponds to lifting/lowering of the second shield; a first stopper capable of shifting between a state of allowing rotation of the first driving shaft in the urged direction of the first shield and a state of restricting the rotation of the first driving shaft; and a second stopper capable of shifting between a state of allowing rotation of the second driving shaft in the urged direction of the second shield and a state of restricting the rotation of the second driving shaft,
A printable media comprising: a. a composite supporting substrate, with an image side and a non-image side, having a first and a second constituent material layers wherein, at least, one of the constituent material layer is a fiber layer and wherein the first and the second materials layers are laminated together with a flame resistant adhesion layer; wherein the flame resistant adhesion layer contains an adhesive compound and a flame retardant agent in an amount of up to 50% by total weight of the flame resistant adhesion layer; b. and an image receiving layer coated on the second layer on the image side of the composite supporting substrate; wherein: at least, the image side of the composite supporting substrate and the image receiving layer are textured surfaces that have controlled peak to valley transition and a slope angle (α) created by a tangent line from controlled peak to valley transition that is less than 60°, the slope angle (α) being determined as defined in the present description; and wherein the surface roughness of the printable media is greater than 5 μm per PPS method. a. a composite supporting substrate, with an image side and a non-image side, having a first and a second constituent material layers wherein, at least, one of the constituent material layer is a fiber layer and wherein the first and the second materials layers are laminated together with a flame resistant adhesion layer; wherein the flame resistant adhesion layer contains an adhesive compound and a flame retardant agent in an amount of up to 50% by total weight of the flame resistant adhesion layer; b. and an image receiving layer coated on the second layer on the image side of the composite supporting substrate; at least, the image side of the composite supporting substrate and the image receiving layer are textured surfaces that have controlled peak to valley transition and a slope angle (α) created by a tangent line from controlled peak to valley transition that is less than 60°, the slope angle (α) being determined as defined in the present description; and wherein the surface roughness of the printable media is greater than 5 μm per PPS method.
Fluidized bed catalytic reactor comprising: ▪ an enclosure comprising a gas inlet conduit and a gas outlet conduit; ▪ a catalytic bed housed in the enclosure and comprising a catalysing material suitable for generating a fluidized phase under the effect of a gas injected into the enclosure through the inlet conduit; and ▪ at least one plasma generating device operating by the discharge of an electric barrier housed in the catalytic bed, with the said device suitable for generating plasma from the gas injected into the enclosure via the inlet conduit. characterized in that: ▪ at least one of the plasma generating devices comprises: o a dielectric element contained in the catalytic bed and comprising a first and a second opposing face; and o a first and a second electrode (30, 40) mounted asymmetrically with respect to the first and second phases of the dielectric element and suitable for connection to a source of voltage; ▪ and in that at least one of the first and second electrodes (30, 40) comprises a tube suitable for connection to a fluid circulating circuit. ▪ an enclosure comprising a gas inlet conduit and a gas outlet conduit; ▪ a catalytic bed housed in the enclosure and comprising a catalysing material suitable for generating a fluidized phase under the effect of a gas injected into the enclosure through the inlet conduit; and ▪ at least one plasma generating device operating by the discharge of an electric barrier housed in the catalytic bed, with the said device suitable for generating plasma from the gas injected into the enclosure via the inlet conduit. ▪ at least one of the plasma generating devices comprises: o a dielectric element contained in the catalytic bed and comprising a first and a second opposing face; and o a first and a second electrode (30, 40) mounted asymmetrically with respect to the first and second phases of the dielectric element and suitable for connection to a source of voltage; o a dielectric element contained in the catalytic bed and comprising a first and a second opposing face; and o a first and a second electrode (30, 40) mounted asymmetrically with respect to the first and second phases of the dielectric element and suitable for connection to a source of voltage; ▪ and in that at least one of the first and second electrodes (30, 40) comprises a tube suitable for connection to a fluid circulating circuit.
An implant system configured for the fixation of a long bone following a translational osteotomy of the long bone for treatment of the hallux valgus syndrome, comprising: at least two plate portions having a different configuration, each plate portion being a separate portion configured to cooperate with a cortical surface of the long bone, and including two locking through holes for two locking fasteners and a body member having a first end and a longitudinally opposing second end joined by a continuous curved exterior surface formed around a long axis and configured to lodge within the intramedullary channel of the long bone so as to avoid rotation within the channel and rotation about the osteotomy site, the first end being tapered or sharpened for insertion into the long bone, and the second end being configured to be assembled to any one of the plate portions so as to form an integral two member implant in advance of the surgery, and wherein any one of the plate portions is offset from the long axis of the body member. at least two plate portions having a different configuration, each plate portion being a separate portion configured to cooperate with a cortical surface of the long bone, and including two locking through holes for two locking fasteners and a body member having a first end and a longitudinally opposing second end joined by a continuous curved exterior surface formed around a long axis and configured to lodge within the intramedullary channel of the long bone so as to avoid rotation within the channel and rotation about the osteotomy site, the first end being tapered or sharpened for insertion into the long bone, and the second end being configured to be assembled to any one of the plate portions so as to form an integral two member implant in advance of the surgery, and wherein any one of the plate portions is offset from the long axis of the body member.
Backrest for beds, armchairs, seats or similar accessory elements, said backrest comprising a main back supporting element suited to allow a user to substantially rest his/her back against it, and suited to be rotated between a first position and a second position, as well as an armrest or arm supporting element, said armrest being suited to be rotated around a first rotation axis between a first rest position and a second use or operating position, said backrest comprising a lever and/or gear system interposed between said armrest or arm supporting element and said main back supporting element, said main back supporting element comprising a first upper end portion and a second lower end portion, a second rotation axis is being positioned at the level of said first upper end portion, said lever and/or gear system comprising a main bar that is integral with said armrest and suited to be rotated around said first rotation axis, as well as a thrust element integral with said main bar, said thrust element comprising a first free end portion opposite said main bar and suited to come into contact with said second lower end portion of said main back supporting element, during rotation of said armrest around said first rotation axis between said first position and said second position, thus exerting thrusting action on said second lower end portion of said main back supporting element that rotates said main back supporting element around said second rotation axis between said first position and said second position; characterized in that said backrest comprises a headrest element suited to be moved between a first position and a second position, in that said armrest and said headrest element are mutually connected by means of said lever and/or gear system, in such a way that a rotation of said armrest around said first rotation axis results in said headrest element being translated between said first and said second position.
A thermoelectric heat recovery system comprising: an inlet for receiving a fluid; an outlet; N heat exchangers, wherein N≥2, located between, and in fluid communication with, the inlet and the outlet, each heat exchanger comprising a plurality of heat exchange conduits (2,4); one or more first fluid paths from the inlet to the outlet, the or each first fluid path passing through, in series, a heat exchange conduit in each of the N heat exchangers in a first sequence; one or more second fluid paths from the inlet to the outlet, the or each second fluid path passing through, in series, a heat exchange conduit in each of the N heat exchangers in a second sequence, the second sequence being the reverse of the first sequence; wherein, in use, the fluid flows in a first direction through a given heat exchange conduit in a given heat exchanger and in a second direction opposite to the first direction through the or each heat exchange conduit adjacent the given heat exchange conduit in the given heat exchanger; and one or more thermoelectric generators, wherein the or each thermoelectric generator has a heat exchanger contact surface which is in thermal contact with at least a portion of at least two adjacent heat exchange conduits (2,4), such that, in use, the heat exchanger contact surface forms the hot side or cold side of the thermoelectric generator. an inlet for receiving a fluid; an outlet; N heat exchangers, wherein N≥2, located between, and in fluid communication with, the inlet and the outlet, each heat exchanger comprising a plurality of heat exchange conduits (2,4); one or more first fluid paths from the inlet to the outlet, the or each first fluid path passing through, in series, a heat exchange conduit in each of the N heat exchangers in a first sequence; one or more second fluid paths from the inlet to the outlet, the or each second fluid path passing through, in series, a heat exchange conduit in each of the N heat exchangers in a second sequence, the second sequence being the reverse of the first sequence; wherein, in use, the fluid flows in a first direction through a given heat exchange conduit in a given heat exchanger and in a second direction opposite to the first direction through the or each heat exchange conduit adjacent the given heat exchange conduit in the given heat exchanger; and one or more thermoelectric generators, wherein the or each thermoelectric generator has a heat exchanger contact surface which is in thermal contact with at least a portion of at least two adjacent heat exchange conduits (2,4), such that, in use, the heat exchanger contact surface forms the hot side or cold side of the thermoelectric generator.
Distribution device, specifically distribution block, of a telecommunications system, comprising a receiving device which is, in particular, in the form of a receiving trough, wherein the receiving device receives a plurality of functional elements and a plurality of wire guiding elements, wherein the functional elements have connection elements, in particular in the form of IDC contacts, for the connection of data signal lines, and wherein data signal lines, which are combined to form core bundles, of at least one main cable can be supplied to the connection elements of the functional elements in such a way that the data signal lines can be connected to the connection elements of the functional elements, characterized by at least one core bundle clamping device (24; 42; 43), wherein a plurality of core bundles (20, 21) of a main cable (17, 18) can be clamped one above the other or next to one another on the or each core bundle clamping device, wherein the or each core bundle clamping device (24; 42; 43) has a main body, and wherein the or each core bundle clamping device (24; 42; 43) can be detachably fastened to a side wall of the receiving device in such a way that the main body extends approximately parallel to a side wall of the receiving device.
A polymer for a liquid crystal aligning agent, comprising a repeating unit represented by the following Chemical Formula 1, a repeating unit represented by the following Chemical Formula 2, and a repeating unit represented by the following Chemical Formula 3, wherein the repeating unit represented by the following Chemical Formula 1 is comprised in an amount of 1 to 30 mol% with respect to the total repeating units represented by the following Chemical Formulae 1 to 3: wherein X 1 to X 3 are each independently a tetravalent organic group derived from hydrocarbon having 4 to 20 carbon atoms, or a tetravalent organic group, wherein one or more hydrogens are substituted with halogen or one or more -CH 2 - are substituted with -O-, -CO-, -S-, -SO-, -SO 2 - or -CONH- in order to prevent direct linkage of oxygen or sulfur atoms, R 1 and R 2 are each independently hydrogen or an alkyl group having 1 to 10 carbon atoms, provided that not all R 1 and R 2 are hydrogen, Y 1 to Y 3 are each independently a divalent organic group represented by the following Chemical Formula 4, wherein R 3 and R 4 are each independently halogen, a cyano group, an alkyl group 1 to 10 having carbon atoms, an alkenyl group having 2 to 10 carbon atoms, an alkoxy group having 1 to 10 carbon atoms, a fluoroalkyl group having 1 to 10 carbon atoms, or a fluoroalkoxy group having 1 to 10 carbon atoms, p and q are each independently an integer of 0 to 4, L 1 is a single bond, -O-, -CO-, -S-, -SO 2 -, -C(CH 3) 2 -, -C(CF 3) 2 -, -CONH-, -COO-,-(CH 2) z -, -O(CH 2) z O-, -O(CH 2) z -, -OCH 2 -C(CH 3) 2 -CH 2 O- or -COO-(CH 2) z -OCO-, z is an integer of 1 to 10, and m is an integer of 0 to 3. wherein X 1 to X 3 are each independently a tetravalent organic group derived from hydrocarbon having 4 to 20 carbon atoms, or a tetravalent organic group, wherein one or more hydrogens are substituted with halogen or one or more -CH 2 - are substituted with -O-, -CO-, -S-, -SO-, -SO 2 - or -CONH- in order to prevent direct linkage of oxygen or sulfur atoms, R 1 and R 2 are each independently hydrogen or an alkyl group having 1 to 10 carbon atoms, provided that not all R 1 and R 2 are hydrogen, Y 1 to Y 3 are each independently a divalent organic group represented by the following Chemical Formula 4, wherein R 3 and R 4 are each independently halogen, a cyano group, an alkyl group 1 to 10 having carbon atoms, an alkenyl group having 2 to 10 carbon atoms, an alkoxy group having 1 to 10 carbon atoms, a fluoroalkyl group having 1 to 10 carbon atoms, or a fluoroalkoxy group having 1 to 10 carbon atoms, p and q are each independently an integer of 0 to 4, L 1 is a single bond, -O-, -CO-, -S-, -SO 2 -, -C(CH 3) 2 -, -C(CF 3) 2 -, -CONH-, -COO-,-(CH 2) z -, -O(CH 2) z O-, -O(CH 2) z -, -OCH 2 -C(CH 3) 2 -CH 2 O- or -COO-(CH 2) z -OCO-, z is an integer of 1 to 10, and m is an integer of 0 to 3.
Apparatus for the electrochemical removal of material containing radionuclides from the surface of a conducting metallic object comprising two coherent fluid jets or laminar flows of electrolyte arranged to impinge on the surface providing an electrical current path through one of the fluid jets or laminar flows, the object, and through one second of the fluid jets or laminar flows, and having flexible and electrically insulating material conduits to supply the electrolyte flows to outlets close to the surface and electrodes in the conduits or outlets to introduce current to the electrolyte, characterised in that: the two jets or laminar flows are formed by the outlets which are spaced from the surface during use; each of the two jets or laminar flows travels through free space before impinging on the surface at a different impingement point. the two jets or laminar flows are formed by the outlets which are spaced from the surface during use; each of the two jets or laminar flows travels through free space before impinging on the surface at a different impingement point.
Ventilation device for use in an air conditioning system with a housing exhibiting a preferably round or rectangular flow cross-section, with a flap sheet which is mounted so as to pivot about a pivot axis, and comprises two flap surfaces, and with an apparatus with at least one measurement point (4, 5) for determining the pressure of a gaseous medium M flowing in the housing, wherein the flap sheet comprises at least one extraction point, preferably arranged on at least one flap surface, which is connected to one of the at least one measurement point (4, 5), characterised in that either at least one end of the pivot axis is accessible from outside the housing through a housing opening located in the housing and flush to the pivot axis, wherein at least one measurement point (4, 5), and preferably each measurement point (4, 5), is connected to a transmitter, which is arranged at the end of the pivot axis which is accessible from outside the housing and that the transmitter is secured at the end of the pivot axis in a torsionally-resistant manner, or at least one end of the pivot axis projects on the outside, through a housing opening located in the housing, out of the housing, wherein at least one measurement point (4, 5), and preferably each measurement point (4, 5), is connected to a transmitter, which is arranged at the end of the pivot axis projecting out of the housing and that the transmitter is secured at the end of the pivot axis in a torsionally-resistant manner.