mhurhangee/patent-ind-claim-en huggingface dataset:
Method for creating a formwork for a precast concrete component in a formwork environment having a ground formwork element , wherein a device for detecting the formwork environment is used, which has at least one sensor with which the formwork environment is optically detected, wherein the method comprises: determining or adjusting an angular position in at least one first direction (r1, R1) of the device for detecting the formwork environment with respect to a plane (E) substantially transverse to the direction of the gravity acceleration (g); determining an angular position of the ground formwork element in at least the first direction (r1, R1), wherein a deviation of the angular position of the ground formwork element in at least the first direction (r1, R1) from the plane (E) substantially transverse to the direction of the gravity acceleration (g) is established by means of the device for detecting the formwork environment and a calculating device; determining or adjusting an angular position in at least one second direction (r2, R2), different from the first direction, of the device for detecting the formwork environment with respect to a plane (E) substantially transverse to the direction of the gravity acceleration (g) and determining an angular position of the ground formwork element in at least the second direction (r2, R2), wherein a deviation of the angular position of the ground formwork element in the second direction (r2, R2) from the plane (E) substantially transverse to the direction of the gravity acceleration (g) is established by means of the device for detecting the formwork environment and the calculating device. determining or adjusting an angular position in at least one first direction (r1, R1) of the device for detecting the formwork environment with respect to a plane (E) substantially transverse to the direction of the gravity acceleration (g); determining an angular position of the ground formwork element in at least the first direction (r1, R1), wherein a deviation of the angular position of the ground formwork element in at least the first direction (r1, R1) from the plane (E) substantially transverse to the direction of the gravity acceleration (g) is established by means of the device for detecting the formwork environment and a calculating device; determining or adjusting an angular position in at least one second direction (r2, R2), different from the first direction, of the device for detecting the formwork environment with respect to a plane (E) substantially transverse to the direction of the gravity acceleration (g) and determining an angular position of the ground formwork element in at least the second direction (r2, R2), wherein a deviation of the angular position of the ground formwork element in the second direction (r2, R2) from the plane (E) substantially transverse to the direction of the gravity acceleration (g) is established by means of the device for detecting the formwork environment and the calculating device.
A wavefront measuring apparatus comprising: a first lens array to split a radially propagating light beam after being emitted from an optical system to be tested and once forming an image, and then to condense each of the split light beams; a concave lens to further spread radially the plurality of split light beams from the first lens array; a detection unit disposed at a position where condensing spots of the plurality of split light beams radially propagating from the first lens array are formed; and a control unit to calculate, when the first lens array is at a position of conjugation with the optical system to be tested, a transmitted wavefront of the optical system to be tested from positions of the condensing spots. a first lens array to split a radially propagating light beam after being emitted from an optical system to be tested and once forming an image, and then to condense each of the split light beams; a concave lens to further spread radially the plurality of split light beams from the first lens array; a detection unit disposed at a position where condensing spots of the plurality of split light beams radially propagating from the first lens array are formed; and a control unit to calculate, when the first lens array is at a position of conjugation with the optical system to be tested, a transmitted wavefront of the optical system to be tested from positions of the condensing spots.
Cooling system comprising a cooler for cooling the forced induction gas of a combustion engine, wherein the forced induction gas of the combustion engine is air, said cooler having an air/air heat exchanger disposed between an inlet tank and an outlet tank for the forced induction air of the engine, and a device for evacuating condensates by gravity that is fitted to at least one of said tanks and is able to pass reversibly from an open position to a closed position, characterized in that said condensate evacuation device comprises a drainage valve , said valve being inserted through a receiving orifice made in a horizontal median plane of a wall of the outlet tank , at the bottom point of said tank, said valve being associated with means for regulating its opening and closure by calibration depending on the internal pressure in said tank, said valve comprising an upper part that is present with said regulation means only inside said tank that is so equipped, and a lower part that is present only outside said tank, said upper part and lower part of the valve being connected by a central part , said central part having a transverse dimension that is substantially smaller than that of the receiving orifice such that the valve may slide longitudinally along this central part in the receiving orifice under the action of the means for regulating its opening and closure, characterized in that the drainage valve is made from a flexible material, preferably from an elastomer material, the central part accommodates condensate drainage holes that are in communication with an evacuation channel of which the outlet opens through said lower part of the valve to outside said valve, said drainage holes having an elongate shape along the longitudinal axis of said valve, and said means for regulating the opening and closure of the valve being in the form of a conical coil spring wound around the central part of the valve, its base having a diameter greater than the diameter of the orifice for receiving the valve so as to be able to come to bear on the internal surface of the wall of the tank surrounding said orifice, under the effect of an internal pressure in said tank that is so equipped, which pressure is calibrated by said spring so as to put said valve in the closed position, said upper part of the valve also being able to be pushed back by the spring that expands when the internal pressure in the tank is lower than this pressure calibrated by the spring so as to put the valve in the open position, the travel of the valve in the orifice being limited to the length of the central part of the valve.
A method for manufacturing a floor covering characterised in that it comprises the steps of: (a) vulcanising a layer, called support layer , made of elastomer, (b) assembling a layer, called intermediate layer , to the support layer during the step of vulcanising, the intermediate layer being made of a material selected from the group consisting of polyester, polyetheretherketone, polyetherimide, polysulfone, polyimide, polyamide, fluoropolymer, polyurethane and paper, (c) printing a layer, called print layer , on the intermediate layer or on a layer, called protective layer , which is transparent, (d1) in the case where the print layer has been printed on the intermediate layer , assembling the transparent protective layer to the print layer of the set comprising the print layer , the intermediate layer and the support layer , or (d2) in the case where the print layer has been printed on the transparent protective layer , assembling the print layer of the set comprising the print layer and the protective layer to the intermediate layer of the set comprising the intermediate layer and the support layer . (a) vulcanising a layer, called support layer , made of elastomer, (b) assembling a layer, called intermediate layer , to the support layer during the step of vulcanising, the intermediate layer being made of a material selected from the group consisting of polyester, polyetheretherketone, polyetherimide, polysulfone, polyimide, polyamide, fluoropolymer, polyurethane and paper, (c) printing a layer, called print layer , on the intermediate layer or on a layer, called protective layer , which is transparent, (d1) in the case where the print layer has been printed on the intermediate layer , assembling the transparent protective layer to the print layer of the set comprising the print layer , the intermediate layer and the support layer , or (d2) in the case where the print layer has been printed on the transparent protective layer , assembling the print layer of the set comprising the print layer and the protective layer to the intermediate layer of the set comprising the intermediate layer and the support layer .
A torque wrench for an implant procedure, the torque wrench comprising: a first body part having a predetermined length, and including a hollow portion formed in a longitudinal direction and a head portion in which a fastening hole is formed at an end thereof to which a torque wrench driver bit is coupled; a rotor having a first gear provided at an upper end of the rotor, the rotor being inserted into a fastening hole formed in the head portion , the rotor having a plurality of ratchet grooves formed in an outer surface thereof; a first shaft including a ratchet protrusion formed at one end thereof and configured to be inserted into the hollow portion of the first body such that the ratchet protrusion is coupled to the ratchet grooves to enable one-way torque transmission; at least one second body part having a predetermined length, provided at the upper side of the first body part , and including a coupling portion formed in a longitudinal direction thereof; and a second shaft rotatably coupled to the coupling portion of the second body part , including a second gear provided at one end thereof and a knob provided at the other end thereof, and configured such that, in response to rotation of the knob , the second shaft transmits torque to the rotor and to the torque wrench driver bit through the first gear engaged with the second gear . a first body part having a predetermined length, and including a hollow portion formed in a longitudinal direction and a head portion in which a fastening hole is formed at an end thereof to which a torque wrench driver bit is coupled; a rotor having a first gear provided at an upper end of the rotor, the rotor being inserted into a fastening hole formed in the head portion , the rotor having a plurality of ratchet grooves formed in an outer surface thereof; a first shaft including a ratchet protrusion formed at one end thereof and configured to be inserted into the hollow portion of the first body such that the ratchet protrusion is coupled to the ratchet grooves to enable one-way torque transmission; at least one second body part having a predetermined length, provided at the upper side of the first body part , and including a coupling portion formed in a longitudinal direction thereof; and a second shaft rotatably coupled to the coupling portion of the second body part , including a second gear provided at one end thereof and a knob provided at the other end thereof, and configured such that, in response to rotation of the knob , the second shaft transmits torque to the rotor and to the torque wrench driver bit through the first gear engaged with the second gear .
An electric machine for a heavy-duty vehicle , the electric machine comprising a stator and a rotor separated by an air gap , where the stator comprises a stator reconfiguration device arranged to modify a magnetic property of the stator, where the stator reconfiguration device comprises first and second sections formed in different materials (M1, M2), where the different materials have different magnetic permeability properties, such that an orientation of the stator reconfiguration device relative to the stator influences the magnetic property of the stator, wherein the stator is arranged to be mechanically reconfigurable by the stator reconfiguration device to allow control of magnetic flux in the air gap, characterized in that the stator reconfiguration device comprises one or more conduits for passing a cooling medium through the stator reconfiguration device. the electric machine comprising a stator and a rotor separated by an air gap , where the stator comprises a stator reconfiguration device arranged to modify a magnetic property of the stator, where the stator reconfiguration device comprises first and second sections formed in different materials (M1, M2), where the different materials have different magnetic permeability properties, such that an orientation of the stator reconfiguration device relative to the stator influences the magnetic property of the stator, wherein the stator is arranged to be mechanically reconfigurable by the stator reconfiguration device to allow control of magnetic flux in the air gap, characterized in that the stator reconfiguration device comprises one or more conduits for passing a cooling medium through the stator reconfiguration device.
An information processing apparatus comprising: a receiver (1202; 122: 122RX) configured to repeatedly receive a packet from another apparatus through radio communication; a memory (128; 114; 116) configured to store the packet received by the receiver; an information processing unit configured to perform information processing and to make mode transition at least between a first mode and a second mode lower in power consumption than the first mode; a mode management module configured to have the information processing unit make mode transition from the second mode to the first mode when at least any one of the number of packets stored in the memory and a data amount of a packet stored in the memory satisfies a first condition; and a reading module configured to read the packet stored in the memory when the information processing unit makes mode transition from the second mode to the first mode, the information processing unit making mode transition from the first mode to the second mode when the information processing unit has performed processing including reading of the packet by the reading module. a receiver (1202; 122: 122RX) configured to repeatedly receive a packet from another apparatus through radio communication; a memory (128; 114; 116) configured to store the packet received by the receiver; an information processing unit configured to perform information processing and to make mode transition at least between a first mode and a second mode lower in power consumption than the first mode; a mode management module configured to have the information processing unit make mode transition from the second mode to the first mode when at least any one of the number of packets stored in the memory and a data amount of a packet stored in the memory satisfies a first condition; and a reading module configured to read the packet stored in the memory when the information processing unit makes mode transition from the second mode to the first mode, the information processing unit making mode transition from the first mode to the second mode when the information processing unit has performed processing including reading of the packet by the reading module.
A vehicle lighting fixture comprising: a light source ; an outer lens disposed in front of the light source ; a heat sink thermally connected to the light source ; and an air blower having air blowing openings behind the light source , the heat sink including: a base portion extending outward, relative to the light source , in an intersection direction intersecting with an optical axis (X) extending frontward of the light source ; and a heat dissipation portion extending longitudinally from an outer portion of the base portion in the intersection direction, dissipating heat to air blown from the air blowing openings , and directing the air to the outer lens , characterized in that the air blower includes a casing being comprised of a housing fitting into a heat sink internal space and a back cover engaging, from a back side, with a back end surface of the heat sink , the back cover includes an annular front surface and is formed to project radially outward relative to the outer diameter of the housing , the air blowing openings are arranged in the front surface , and the air blower is configured such that the air hits the back cover , and then, flows so as to come around radially outward to be ejected forward from the air blowing openings , so as to be directed to the outer lens along the heat dissipation portion . a base portion extending outward, relative to the light source , in an intersection direction intersecting with an optical axis (X) extending frontward of the light source ; and a heat dissipation portion extending longitudinally from an outer portion of the base portion in the intersection direction, dissipating heat to air blown from the air blowing openings , and directing the air to the outer lens , characterized in that the air blower includes a casing being comprised of a housing fitting into a heat sink internal space and a back cover engaging, from a back side, with a back end surface of the heat sink , the back cover includes an annular front surface and is formed to project radially outward relative to the outer diameter of the housing , the air blowing openings are arranged in the front surface , and the air blower is configured such that the air hits the back cover , and then, flows so as to come around radially outward to be ejected forward from the air blowing openings , so as to be directed to the outer lens along the heat dissipation portion .
A method for additively manufacturing a component, the method comprising: receiving, via an additive manufacturing system, a geometry of the component; melting and fusing, via an energy beam of an energy source of the additive manufacturing system, material layer by layer atop a build platform of the component according to the geometry so as to build up a plurality of layers that form the component; characterized in determining a surface area change from one of the plurality of layers to the next based on the geometry; and temporarily discontinuing melting and fusing of the material by the energy beam between building of one or more of the plurality of layers so as to provide a delay after building one or more of the plurality of layers when the surface area change is above a predetermined threshold, wherein the length of the delay is determined as function of the surface area change, the delay allowing one or more previously built layers to at least partially cool. receiving, via an additive manufacturing system, a geometry of the component; melting and fusing, via an energy beam of an energy source of the additive manufacturing system, material layer by layer atop a build platform of the component according to the geometry so as to build up a plurality of layers that form the component; characterized in determining a surface area change from one of the plurality of layers to the next based on the geometry; and temporarily discontinuing melting and fusing of the material by the energy beam between building of one or more of the plurality of layers so as to provide a delay after building one or more of the plurality of layers when the surface area change is above a predetermined threshold, wherein the length of the delay is determined as function of the surface area change, the delay allowing one or more previously built layers to at least partially cool.
A shell and tube heat exchanger comprising: an elongated cylindrical shell that defines a longitudinal axis for the heat exchanger and an internal chamber, the shell having two diametrically opposed feed gas inlets and at least one feed gas outlet formed in an outer wall for allowing a feed gas to enter and exit the internal chamber; at least one tube sheet associated with an end of the elongated shell; a plurality of circular baffles longitudinally spaced apart within the internal chamber of the shell for redirecting feed gas flow within the internal chamber; a tube bundle which includes a plurality of tubes for allowing effluent gas to traverse from an inlet plenum through the internal chamber of the shell to an outlet plenum; characterised in that the shell and tube heat exchanger further comprises a first cylindrical shroud distributor arranged and configured to direct feed gas flow from the two diametrically opposed feed gas inlets into the internal chamber proximate the at least one tube sheet , the first shroud distributor having a cylindrical outer surface parallel to the longitudinal axis of the cylindrical shell and an upstream end having two diametrically opposed angled section cut outs formed therein for distributing the flow of feed gas, wherein the two angled section cut outs are disposed symmetrically across a plane bisecting the cylindrical shell evenly between the two diametrically opposed feed gas inlets and each angled section cut out is angled obliquely relative to the longitudinal axis. an elongated cylindrical shell that defines a longitudinal axis for the heat exchanger and an internal chamber, the shell having two diametrically opposed feed gas inlets and at least one feed gas outlet formed in an outer wall for allowing a feed gas to enter and exit the internal chamber; at least one tube sheet associated with an end of the elongated shell; a plurality of circular baffles longitudinally spaced apart within the internal chamber of the shell for redirecting feed gas flow within the internal chamber; a tube bundle which includes a plurality of tubes for allowing effluent gas to traverse from an inlet plenum through the internal chamber of the shell to an outlet plenum; characterised in that the shell and tube heat exchanger further comprises a first cylindrical shroud distributor arranged and configured to direct feed gas flow from the two diametrically opposed feed gas inlets into the internal chamber proximate the at least one tube sheet , the first shroud distributor having a cylindrical outer surface parallel to the longitudinal axis of the cylindrical shell and an upstream end having two diametrically opposed angled section cut outs formed therein for distributing the flow of feed gas, wherein the two angled section cut outs are disposed symmetrically across a plane bisecting the cylindrical shell evenly between the two diametrically opposed feed gas inlets and each angled section cut out is angled obliquely relative to the longitudinal axis.