mhurhangee/ep-ind-claims huggingface dataset:
A surgical device comprising: an outer member; an inner member at least partially supported within the outer member; and at least one locking element configured in a first arrangement of the surgical device to lock the inner member in a first position and configured in a second arrangement of the surgical device to unlock the inner member from the first position, the at least one locking element being configured to change from the first arrangement to the second arrangement upon coupling the inner member in an operational arrangement to a hand piece, characterised in that; the inner member includes a coupler configured to engage a shaft of the hand piece and the at least one locking element comprises a flexible arm extending from the outer member and engaging the coupler in the first arrangement and disengaging from the coupler in the second arrangement based on the shaft of the hand piece contacting the flexible arm in the second arrangement. an outer member; an inner member at least partially supported within the outer member; and at least one locking element configured in a first arrangement of the surgical device to lock the inner member in a first position and configured in a second arrangement of the surgical device to unlock the inner member from the first position, the at least one locking element being configured to change from the first arrangement to the second arrangement upon coupling the inner member in an operational arrangement to a hand piece, characterised in that; the inner member includes a coupler configured to engage a shaft of the hand piece and the at least one locking element comprises a flexible arm extending from the outer member and engaging the coupler in the first arrangement and disengaging from the coupler in the second arrangement based on the shaft of the hand piece contacting the flexible arm in the second arrangement.
A display device comprising: a base film comprising plastic; an active layer of a thin film transistor on the base film, the active layer comprising a polysilicon layer formed by crystallizing an amorphous silicon layer using a laser; a barrier layer between the active layer and the base film; a laser absorption layer located between at least a part of the barrier layer and the active layer; and a buffer layer between the laser absorption layer and the active layer, wherein an amorphous silicon layer is used as the laser absorption layer and the amorphous silicon layer used as the laser absorption layer is partially crystallized while absorbing laser beams from the laser. a base film comprising plastic; an active layer of a thin film transistor on the base film, the active layer comprising a polysilicon layer formed by crystallizing an amorphous silicon layer using a laser; a barrier layer between the active layer and the base film; a laser absorption layer located between at least a part of the barrier layer and the active layer; and a buffer layer between the laser absorption layer and the active layer, wherein an amorphous silicon layer is used as the laser absorption layer and the amorphous silicon layer used as the laser absorption layer is partially crystallized while absorbing laser beams from the laser.
A support device for fixing a front panel to the lateral frames of a drawer, with the support device being equipped with a height adjusting eccentric and a lateral adjusting screw for adjusting the front panel, whereby the lateral adjusting screw is disposed within the cross-section of the height adjusting eccentric in a parallel manner to the rotational axis of the height adjusting eccentric within the support device, characterized in that the height adjusting eccentric is arranged in an approximately coil-like manner with two front flanges (10a, 10b) and an interposed core arranged eccentrically in relation thereto, and is provided with a threaded borehole which is penetrated by the lateral adjusting screw.
A melt extruded thin strip comprising: 10 to 80 % by weight of polyethylene oxide having a molecular weight of from 70,000 to 300,000 daltons; 5 to 50 % by weight of a sugar alcohol having a melting point in excess of 75°C; 5 to 30 % by weight of polyethylene glycol having a molecular weight of from 100 to 4,000 daltons; 1 to 30 % by weight of a carboxy vinyl polymer cross linked with an allyl ether of pentaerythritol; and 1 to 10 % by weight of an organic acid addition salt of nicotine, wherein the thin strip is between 0.05 millimeters and 2.00 millimeters thick, wherein the sugar alcohol is selected such that its melting point is in excess of the highest temperature at which the formulation will be treated during formation of the thin strip. 10 to 80 % by weight of polyethylene oxide having a molecular weight of from 70,000 to 300,000 daltons; 5 to 50 % by weight of a sugar alcohol having a melting point in excess of 75°C; 5 to 30 % by weight of polyethylene glycol having a molecular weight of from 100 to 4,000 daltons; 1 to 30 % by weight of a carboxy vinyl polymer cross linked with an allyl ether of pentaerythritol; and 1 to 10 % by weight of an organic acid addition salt of nicotine, wherein the thin strip is between 0.05 millimeters and 2.00 millimeters thick,
A surface-treating aqueous solution for forming a corrosion resistant coating film on a zinc or zinc alloy plating, the surface-treating aqueous solution characterized by comprising: (a) an alkali metal silicate M 2 O·nSiO 2 where M represents an alkali metal and n represents a SiO 2 /M 2 O molar ratio, wherein the SiO 2 /M 2 O molar ratio (n) of the alkali metal silicate is from 1/1 to 4.5/1 and the concentration of the alkali metal silicate in the treating aqueous solution is from 0.25 to 5% by weight in terms of the solid content concentration; (b) a water-soluble or water-dispersible silane coupling agent; and (c) glycidol or a water-soluble or water-dispersible mono- or poly-glycidyl ether of an aliphatic mono- or poly-alcohol which has (i) two or more glycidyl ether groups, or (ii) one or more hydroxyl groups and one or more glycidyl ether groups. (a) an alkali metal silicate M 2 O·nSiO 2 where M represents an alkali metal and n represents a SiO 2 /M 2 O molar ratio, wherein the SiO 2 /M 2 O molar ratio (n) of the alkali metal silicate is from 1/1 to 4.5/1 and the concentration of the alkali metal silicate in the treating aqueous solution is from 0.25 to 5% by weight in terms of the solid content concentration; (b) a water-soluble or water-dispersible silane coupling agent; and (c) glycidol or a water-soluble or water-dispersible mono- or poly-glycidyl ether of an aliphatic mono- or poly-alcohol which has (i) two or more glycidyl ether groups, or (ii) one or more hydroxyl groups and one or more glycidyl ether groups.
A turbine section for a gas turbine engine, comprising: a turbine blade extending radially outwardly to a radially outer tip and for rotation about an axis of rotation; a support structure; a blade outer air seal mounted in the support structure and arranged radially outward of the outer tip, wherein the blade outer air seal has a hook near a first axial side and a lip near a second axial side for engagement with the support structure; and a flow guide arranged between the support structure and the blade outer air seal, defining a passage between the flow guide and the blade outer air seal configured to communicate air in a generally axial direction, wherein the flow guide has a flow guide hook and flow guide lip that engage with the blade outer air seal; characterised in that: the blade outer air seal has an air inlet in the hook and the flow guide has an air outlet near the second axial side of the blade outer air seal. a turbine blade extending radially outwardly to a radially outer tip and for rotation about an axis of rotation; a support structure; a blade outer air seal mounted in the support structure and arranged radially outward of the outer tip, wherein the blade outer air seal has a hook near a first axial side and a lip near a second axial side for engagement with the support structure; and a flow guide arranged between the support structure and the blade outer air seal, defining a passage between the flow guide and the blade outer air seal configured to communicate air in a generally axial direction, wherein the flow guide has a flow guide hook and flow guide lip that engage with the blade outer air seal; characterised in that: the blade outer air seal has an air inlet in the hook and the flow guide has an air outlet near the second axial side of the blade outer air seal.
A device connector in which a plurality of metal conductors connected to device-side terminals provided in a device are made integral by a molded housing, comprising: a primary molded article comprising a plurality of cores made of synthetic resin, the cores being individually formed and positioned in contact in a lateral direction, each core being made integral with a conductor by molding; and a metal plate to be attached and fixed to the device; wherein: the housing comprises a secondary molded portion made of synthetic resin and integrally forming the primary molded article and the metal plate; at least one resin entering space, into which molding resin for forming the secondary molded portion of the housing can enter, is arranged to cross a straight part of the primary molded article extending in the lateral direction before the secondary molded portion of the housing is formed; and the resin entering space is formed between a pair of adjacent cores. a primary molded article comprising a plurality of cores made of synthetic resin, the cores being individually formed and positioned in contact in a lateral direction, each core being made integral with a conductor by molding; and a metal plate to be attached and fixed to the device; wherein: the housing comprises a secondary molded portion made of synthetic resin and integrally forming the primary molded article and the metal plate; at least one resin entering space, into which molding resin for forming the secondary molded portion of the housing can enter, is arranged to cross a straight part of the primary molded article extending in the lateral direction before the secondary molded portion of the housing is formed; and the resin entering space is formed between a pair of adjacent cores. the housing comprises a secondary molded portion made of synthetic resin and integrally forming the primary molded article and the metal plate; at least one resin entering space, into which molding resin for forming the secondary molded portion of the housing can enter, is arranged to cross a straight part of the primary molded article extending in the lateral direction before the secondary molded portion of the housing is formed; and the resin entering space is formed between a pair of adjacent cores.
A process for building a tyre comprising: - supplying a fluid flow through a first nozzle (31; 131) of a pneumatic sensor (30; 130) which is provided in the region of a head of an extruder, said fluid flow being directed in a flow direction (A; B) which does not interfere with a second nozzle (32; 132) of said pneumatic sensor which is connected to a pressure measuring unit, supplying from an auxiliary nozzle a fluid jet directed in an upward direction and away from said head in order to lift a continuous elongate element output from an opening which is formed in said head of said extruder, wherein said sensor is positioned on said head at the opposite side with respect to said auxiliary nozzle, so as not to be affected by said fluid jet which is discharged from said auxiliary nozzle, both in the presence and in the absence of said continuous elongate element output from said opening, - starting to extrude said continuous elongate element through said opening, - redirecting said fluid flow via said continuous elongate element into said second nozzle (32; 132) of said pneumatic sensor, - detecting a variation in pressure in said second nozzle (32; 132), thereby determining the presence of said continuous elongate element output from said opening, - after a predetermined time from said detection of the variation in pressure, causing a forming drum to rotate about its own axis of rotation, - distributing said continuous elongate element over a radially external surface of said forming drum. - supplying a fluid flow through a first nozzle (31; 131) of a pneumatic sensor (30; 130) which is provided in the region of a head of an extruder, said fluid flow being directed in a flow direction (A; B) which does not interfere with a second nozzle (32; 132) of said pneumatic sensor which is connected to a pressure measuring unit, supplying from an auxiliary nozzle a fluid jet directed in an upward direction and away from said head in order to lift a continuous elongate element output from an opening which is formed in said head of said extruder, wherein said sensor is positioned on said head at the opposite side with respect to said auxiliary nozzle, so as not to be affected by said fluid jet which is discharged from said auxiliary nozzle, both in the presence and in the absence of said continuous elongate element output from said opening, - starting to extrude said continuous elongate element through said opening, - redirecting said fluid flow via said continuous elongate element into said second nozzle (32; 132) of said pneumatic sensor, - detecting a variation in pressure in said second nozzle (32; 132), thereby determining the presence of said continuous elongate element output from said opening, - after a predetermined time from said detection of the variation in pressure, causing a forming drum to rotate about its own axis of rotation, - distributing said continuous elongate element over a radially external surface of said forming drum.
A method of manufacturing a glazing having a frequency selective surface comprising the steps of: a) depositing a coating on a substrate, said coating being non-transmitting to radio frequency radiation; b) providing a laser beam and c) removing a portion of the coating by laser ablation to form lines having a spacing selected to provide transparency of the coating to RF radiation of a desired wavelength; characterized by d) directing the laser beam and/or moving the substrate such that the relative motion of the intersection of the laser beam and the coating, with respect to the substrate, comprises motion in a first dimension, wherein said motion is simultaneously superimposed with a reciprocating motion in a second dimension; e) translating said intersection in the second dimension; and f) repeating at least step d) out of steps d) to f); so that the lines produced by the laser beam are undulating lines that touch or overlap in order to provide more effective RF transparency. a) depositing a coating on a substrate, said coating being non-transmitting to radio frequency radiation; b) providing a laser beam and c) removing a portion of the coating by laser ablation to form lines having a spacing selected to provide transparency of the coating to RF radiation of a desired wavelength; d) directing the laser beam and/or moving the substrate such that the relative motion of the intersection of the laser beam and the coating, with respect to the substrate, comprises motion in a first dimension, wherein said motion is simultaneously superimposed with a reciprocating motion in a second dimension; e) translating said intersection in the second dimension; and f) repeating at least step d) out of steps d) to f); so that the lines produced by the laser beam are undulating lines that touch or overlap in order to provide more effective RF transparency.
Method for at least semi-autonomous manoeuvring of a motor vehicle, in which a parking space is detected in a surrounding area of the motor vehicle, wherein the parking space is bounded by a curb, or a curb is arranged inside the parking space, a travel trajectory for parking the motor vehicle in the parking space is determined, and the motor vehicle is manoeuvred along the determined travel trajectory, wherein the travel trajectory is determined in such a way that it has at least two parking movements (15, 16) between which a direction of travel of the motor vehicle is changed at a change point, and in a such a way that a distance between at least one wheel (17, 18) of the motor vehicle and the curb at the change point exceeds a predetermined minimum distance (a), characterized in that the at least two parking movements (15, 16) are determined in such a way that a number of movements over the curb, during which at least one wheel (17, 18) of the motor vehicle is moved over the curb, is minimized.
An antenna module comprising: a substrate; an antenna element mounted on the substrate, the antenna element configured to perform wireless communication using a wireless signal of a first frequency band; and a loop antenna formed on the substrate and surrounding the antenna element, the loop antenna configured to perform wireless communication using a wireless signal of a second frequency band; wherein the antenna element is configured to be operated by power fed through a power feeding conductor, and the loop antenna is configured to be operated by power fed in a contactless manner from outside wherein the substrate includes, at one edge of the substrate, an antenna formed region in which no conductor or circuit is formed except for the power feeding conductor for the antenna element and an impedance matching circuit constituted by a passive element, and wherein the antenna element and the loop antenna are formed in the antenna formed region, and a power feeding section configured to feed the power to the antenna element through the power feeding conductor is provided in a region other than the antenna formed region. a substrate; an antenna element mounted on the substrate, the antenna element configured to perform wireless communication using a wireless signal of a first frequency band; and a loop antenna formed on the substrate and surrounding the antenna element, the loop antenna configured to perform wireless communication using a wireless signal of a second frequency band; wherein the antenna element is configured to be operated by power fed through a power feeding conductor, and the loop antenna is configured to be operated by power fed in a contactless manner from outside wherein the substrate includes, at one edge of the substrate, an antenna formed region in which no conductor or circuit is formed except for the power feeding conductor for the antenna element and an impedance matching circuit constituted by a passive element, and wherein the antenna element and the loop antenna are formed in the antenna formed region, and a power feeding section configured to feed the power to the antenna element through the power feeding conductor is provided in a region other than the antenna formed region.
A storage amount estimation device that is configured to estimate an electricity storage amount of an energy storage device in which at least one of a positive electrode plate and a negative electrode plate includes an active material, wherein the active material generates at least two electrochemical reactions (A, B) depending on a change of state of charge, and a hysteresis of a voltage value depending on a charge and discharge history in an electricity storage amount-voltage value charge characteristic and an electricity storage amount-voltage value discharge characteristic during generation of one of the electrochemical reactions is smaller than the hysteresis of the voltage value during generation of the other electrochemical reaction in the active material, the storage amount estimation device comprising a processing unit that is configured to estimate the electricity storage amount using a voltage reference storage amount-voltage value characteristic obtained by correcting the electricity storage amount-voltage value discharge characteristic in a voltage value region, where a reaction amount of the one electrochemical reaction is larger than a reaction amount of the other electrochemical reaction, wherein in the voltage value region, where the reaction amount of the one electrochemical reaction is larger than the reaction amount of the other electrochemical reaction, the electricity storage amount is estimated based on a difference in electricity storage amount between the electricity storage amount-voltage value charge characteristic and the electricity storage amount-voltage value discharge characteristic at an identical voltage value and the voltage reference storage amount-voltage value characteristic is obtained by moving the electricity storage amount-voltage value discharge characteristic toward the electricity storage amount-voltage value charge characteristic. the storage amount estimation device comprising a processing unit that is configured to estimate the electricity storage amount using a voltage reference storage amount-voltage value characteristic obtained by correcting the electricity storage amount-voltage value discharge characteristic in a voltage value region, where a reaction amount of the one electrochemical reaction is larger than a reaction amount of the other electrochemical reaction, wherein in the voltage value region, where the reaction amount of the one electrochemical reaction is larger than the reaction amount of the other electrochemical reaction, the electricity storage amount is estimated based on a difference in electricity storage amount between the electricity storage amount-voltage value charge characteristic and the electricity storage amount-voltage value discharge characteristic at an identical voltage value and the voltage reference storage amount-voltage value characteristic is obtained by moving the electricity storage amount-voltage value discharge characteristic toward the electricity storage amount-voltage value charge characteristic.