mhurhangee/ep-ind-claims huggingface dataset:
An anchor driver tool, comprising: an outer shaft having first and second prongs (424a, 424b) extending distally from a distal end thereof and configured to extend into opposed slots formed in a sheath of an anchor assembly; an inner shaft extending through the outer shaft and having a distal end configured to mate with an expander (200, 220, 240) of an anchor assembly; and a handle assembly coupled to a proximal end of each of the inner and outer shafts, the handle assembly including an actuator configured to rotate the inner shaft relative to the outer shaft to drive an expander coupled to a distal end of the inner shaft into a sheath coupled to the first and second prongs of the outer shaft, the outer shaft being configured to hold the sheath in a substantially fixed position during rotation of the inner shaft; and characterised by at least one marking (407, 411) formed on at least one of the inner and outer shafts for indicating when an expander is fully seated within a sheath. an outer shaft having first and second prongs (424a, 424b) extending distally from a distal end thereof and configured to extend into opposed slots formed in a sheath of an anchor assembly; an inner shaft extending through the outer shaft and having a distal end configured to mate with an expander (200, 220, 240) of an anchor assembly; and a handle assembly coupled to a proximal end of each of the inner and outer shafts, the handle assembly including an actuator configured to rotate the inner shaft relative to the outer shaft to drive an expander coupled to a distal end of the inner shaft into a sheath coupled to the first and second prongs of the outer shaft, the outer shaft being configured to hold the sheath in a substantially fixed position during rotation of the inner shaft; and characterised by at least one marking (407, 411) formed on at least one of the inner and outer shafts for indicating when an expander is fully seated within a sheath.
Dental implant with an implant body, wherein the implant body has, in an apical region, a macro-structure in the form of a multiple thread, wherein the implant body has a micro-structured central region with a structure, wherein the structure in the micro-structured central region has a depth less than the depth of the multiple thread, wherein the surface roughness in the apical region, namely in the region of the multiple thread, is at least in part greater than in the micro-structured central region, wherein a distal region is present adjacent to the micro-structured central region, wherein the distal region is cylindrical and threadless, wherein the implant body has a receptacle and a blind hole opening into the receptacle, wherein two holding threads (15, 16) are formed in the blind hole, wherein the two holding threads (15, 16) are spaced apart from each other, characterized in that the dental implant is designed as a ceramic implant.
A method of forming an impermeable sintered ceramic electrolyte layer of a solid oxide fuel cell, said method comprising the steps of: depositing a ceramic powder onto a stainless steel foil substrate or on top of a porous intermediate ceramic electrode layer on said substrate, using electrophoretic deposition to form a deposited ceramic powder layer; isostatically pressing said deposited ceramic powder layer to form a compressed ceramic powder layer; and heating said compressed ceramic powder layer to a temperature of less than 1100°C to sinter said compressed ceramic powder to form said sintered ceramic electrolyte layer upon said substrate. depositing a ceramic powder onto a stainless steel foil substrate or on top of a porous intermediate ceramic electrode layer on said substrate, using electrophoretic deposition to form a deposited ceramic powder layer; isostatically pressing said deposited ceramic powder layer to form a compressed ceramic powder layer; and heating said compressed ceramic powder layer to a temperature of less than 1100°C to sinter said compressed ceramic powder to form said sintered ceramic electrolyte layer upon said substrate.
Airbag that adapts to a helmet, integrated into a backpack, with housing cavity, positioned or secured to the user's back, provided with gas bottles for rapid inflation in an accident situation and associated with a microprocessor with triaxial accelerometer, GPS and sensors, characterised in that the backpack incorporates • status LEDs, visible to the user, housed in the attachment straps, • an airbag with mechanically-acting deflating valves, folded into the housing cavity, the said airbag, in an inflated state, deploying ∘ an adaptable base over the shoulders protecting the cervical vertebrae, ∘ one or more vertical extensions positioned around the adaptable base, configuring two symmetrical, facing parts, a radial extension emerging from each vertical extension, and ∘ each radial extension coinciding with the opposite radial extension, facing each other at the same height, at the top part of the helmet, configuring a semicircular protective adaptation. • status LEDs, visible to the user, housed in the attachment straps, • an airbag with mechanically-acting deflating valves, folded into the housing cavity, the said airbag, in an inflated state, deploying ∘ an adaptable base over the shoulders protecting the cervical vertebrae, ∘ one or more vertical extensions positioned around the adaptable base, configuring two symmetrical, facing parts, a radial extension emerging from each vertical extension, and ∘ each radial extension coinciding with the opposite radial extension, facing each other at the same height, at the top part of the helmet, configuring a semicircular protective adaptation. ∘ an adaptable base over the shoulders protecting the cervical vertebrae, ∘ one or more vertical extensions positioned around the adaptable base, configuring two symmetrical, facing parts, a radial extension emerging from each vertical extension, and ∘ each radial extension coinciding with the opposite radial extension, facing each other at the same height, at the top part of the helmet, configuring a semicircular protective adaptation.
A stator for an electromagnetic rotary drive that is configured as a temple motor, wherein a rotor can be contactlessly magnetically driven about a desired axis of rotation by the stator in the operating state; wherein the stator has a plurality of coil cores of which each comprises a bar-shaped longitudinal limb that extends from a first end in a direction in parallel with the desired axis of rotation up to a second end; wherein all the first ends are connected by a reflux; and wherein a plurality of windings (6, 61) for generating an electromagnetic rotational field are provided of which windings each surrounds one of the longitudinal limbs, wherein the coil cores comprise a plurality of permanent magnets by which a permanent magnetic pre-magnetization flux can be generated, characterized in that each coil core comprises a permanent magnetic portion that extends from the first end up to the second end of the longitudinal limb and comprises two permanent magnet-free portions that each extend from the first end up to the second end, with the permanent magnetic portion being arranged between the two permanent magnetic portions.
A spray switch for a spray gun comprising: a press handle for controlling water spray; a spray switch being arranged to the press handle for switching a spray mode; wherein the spray switch arranged to the press handle of the spray gun is switched for changing spray modes between manually controlling the press handle for spraying or continuous spraying by a single press, characterized in that an elastic wire having symmetric guide pins on two ends thereof is clamped to a main pipe of the spray gun; the spray switch has a guide block having a symmetric guide on two lateral sides thereof for guiding the guide pins; symmetric recesses are formed next to the guides respectively for temporary holding the guide pins; by switching the spray switch, the guide block will also be switched to engage the guide pins such that while the press handle is firstly pressed, it will remain pressed and after a second press it will be released or not to engage the guide pins. a press handle for controlling water spray; a spray switch being arranged to the press handle for switching a spray mode; wherein the spray switch arranged to the press handle of the spray gun is switched for changing spray modes between manually controlling the press handle for spraying or continuous spraying by a single press, characterized in that an elastic wire having symmetric guide pins on two ends thereof is clamped to a main pipe of the spray gun; the spray switch has a guide block having a symmetric guide on two lateral sides thereof for guiding the guide pins; symmetric recesses are formed next to the guides respectively for temporary holding the guide pins; by switching the spray switch, the guide block will also be switched to engage the guide pins such that while the press handle is firstly pressed, it will remain pressed and after a second press it will be released or not to engage the guide pins.
A method comprising the steps of: a. preparing a plurality of bacterial suspensions from a sample of one or more bacteria in a plurality of receptacles, b. adding to step a. varying concentrations of an antimicrobial agent, thereby creating a plurality of suspensions comprising a combination of bacteria and antimicrobial agent, c. incubating the plurality of suspensions comprising a combination of bacteria and antimicrobial agent of step b. at a suitable temperature for a suitable period of time, thereby creating a plurality of incubated suspensions comprising a combination of bacteria and antimicrobial agent, d. adding to the suspensions of step c. a single dye that is a fluorescent membrane-associated dye that incorporates into a lipid bilayer, e. illuminating the suspensions of step d. with an incident light at one or more excitation wavelength, f. measuring intensity of emitted light at two emission wavelengths of each suspension, g. determining the spectral intensity ratios as the ratio of the intensity of emitted light at the two emission wavelengths based upon step f. of each suspension as a function of the antimicrobial concentration, and h. determining the minimum inhibitory concentration based upon step g.. a. preparing a plurality of bacterial suspensions from a sample of one or more bacteria in a plurality of receptacles, b. adding to step a. varying concentrations of an antimicrobial agent, thereby creating a plurality of suspensions comprising a combination of bacteria and antimicrobial agent, c. incubating the plurality of suspensions comprising a combination of bacteria and antimicrobial agent of step b. at a suitable temperature for a suitable period of time, thereby creating a plurality of incubated suspensions comprising a combination of bacteria and antimicrobial agent, d. adding to the suspensions of step c. a single dye that is a fluorescent membrane-associated dye that incorporates into a lipid bilayer, e. illuminating the suspensions of step d. with an incident light at one or more excitation wavelength, f. measuring intensity of emitted light at two emission wavelengths of each suspension, g. determining the spectral intensity ratios as the ratio of the intensity of emitted light at the two emission wavelengths based upon step f. of each suspension as a function of the antimicrobial concentration, and h. determining the minimum inhibitory concentration based upon step g..
An input device, comprising a device body, a touchpad, a first key and a second key, wherein the device body comprises a handheld part, the first key and the touchpad are arranged on the device body and located on the same side of the device body, and in a case that the handheld part is in a first state, a curvature of the handheld part is a first curvature; and in a case that the handheld part is in a second state, the curvature of the handheld part is a second curvature, and the first curvature is greater than the second curvature; the second key is arranged on the device body; the second key and the touchpad are located on the same side of the device body; or the second key and the touchpad are located on adjacent two sides of the device body; in a case that the handheld part is in the first state, the input device is a mouse, and in a case that the handheld part is in the second state, the input device is an operating handle that is freely usable in space; in the case that the handheld part is in the first state, the first key is in an active state and the second key is in an inactive state; and in the case that the handheld part is in the second state, the second key is in the active state and the touchpad is in the active state. the device body comprises a handheld part, the first key and the touchpad are arranged on the device body and located on the same side of the device body, and in a case that the handheld part is in a first state, a curvature of the handheld part is a first curvature; and in a case that the handheld part is in a second state, the curvature of the handheld part is a second curvature, and the first curvature is greater than the second curvature; the second key is arranged on the device body; the second key and the touchpad are located on the same side of the device body; or the second key and the touchpad are located on adjacent two sides of the device body; in a case that the handheld part is in the first state, the input device is a mouse, and in a case that the handheld part is in the second state, the input device is an operating handle that is freely usable in space; in the case that the handheld part is in the first state, the first key is in an active state and the second key is in an inactive state; and in the case that the handheld part is in the second state, the second key is in the active state and the touchpad is in the active state.
A process for preparing a compound of formula I comprising a step (a) of reacting a compound formula II with a compound of formula III in the presence of a base and a phase transfer catalyst, wherein the reaction mixture comprises at least two phases, wherein one phase is an organic phase and one phase is an aqueous phase, wherein the process further comprises (b) optionally adding an organic solvent and/or water to the mixture obtained in the reaction step (a), (c) separating the at least two phases of the mixture obtained in step (a) or (b), (d) optionally washing the organic phase obtained in step (c) with an aqueous solution, (e) optionally extracting the aqueous phase obtained in step (c) with an organic solvent, and (f) isolating the compound of formula I from the organic phase obtained in step (c) or (d) and optionally in step (e), wherein the phase separation step (c) comprises the separation of three phases, wherein one phase is an organic phase, one phase is an aqueous phase and one phase is a catalyst-containing phase, and wherein the process further comprises isolating the catalyst-containing phase. in the presence of a base and a phase transfer catalyst, wherein the reaction mixture comprises at least two phases, wherein one phase is an organic phase and one phase is an aqueous phase, wherein the process further comprises (b) optionally adding an organic solvent and/or water to the mixture obtained in the reaction step (a), (c) separating the at least two phases of the mixture obtained in step (a) or (b), (d) optionally washing the organic phase obtained in step (c) with an aqueous solution, (e) optionally extracting the aqueous phase obtained in step (c) with an organic solvent, and (b) optionally adding an organic solvent and/or water to the mixture obtained in the reaction step (a), (c) separating the at least two phases of the mixture obtained in step (a) or (b), (d) optionally washing the organic phase obtained in step (c) with an aqueous solution, (e) optionally extracting the aqueous phase obtained in step (c) with an organic solvent, and (f) isolating the compound of formula I from the organic phase obtained in step (c) or (d) and optionally in step (e), wherein the phase separation step (c) comprises the separation of three phases, wherein one phase is an organic phase, one phase is an aqueous phase and one phase is a catalyst-containing phase, and wherein the process further comprises isolating the catalyst-containing phase.
A food dough cutting method comprising steps of: conveying band shaped food dough by way of a conveyor; detecting end positions of both sides of the band shaped food dough by way of a food dough width detection device, which generates a detection signal; calculating the widthwise centre position and the width of the band shaped food dough by way of a control device based on the detection signal; aligning the widthwise centre position and a conveyance position of the food dough by way of an alignment device; dividing the band shaped dough into multiple food dough strips (F1, F2, F3, F4; F1, F2) in the conveyance direction by way of one or more cutting members that are downline from the conveyor; and cutting each food dough strip (F1, F2, F3, F4; F1, F2) into food dough pieces having a specified weight by way of a food dough piece cutting device; characterised in that the conveyance position is a position that is displaced just an alignment displacement amount with respect to a reference position that is based on the installation position of the one or more cutting members; and the alignment displacement amount is calculated by the control device based on the average width of the band shaped food dough and the ratio of average lengths (L1, L4; L1, L2) of food dough pieces that are cut from the food dough strips (F1, F4; F1, F2) that are located on both sides. conveying band shaped food dough by way of a conveyor; detecting end positions of both sides of the band shaped food dough by way of a food dough width detection device, which generates a detection signal; calculating the widthwise centre position and the width of the band shaped food dough by way of a control device based on the detection signal; aligning the widthwise centre position and a conveyance position of the food dough by way of an alignment device; dividing the band shaped dough into multiple food dough strips (F1, F2, F3, F4; F1, F2) in the conveyance direction by way of one or more cutting members that are downline from the conveyor; and cutting each food dough strip (F1, F2, F3, F4; F1, F2) into food dough pieces having a specified weight by way of a food dough piece cutting device; characterised in that the conveyance position is a position that is displaced just an alignment displacement amount with respect to a reference position that is based on the installation position of the one or more cutting members; and the alignment displacement amount is calculated by the control device based on the average width of the band shaped food dough and the ratio of average lengths (L1, L4; L1, L2) of food dough pieces that are cut from the food dough strips (F1, F4; F1, F2) that are located on both sides.
Apparatus for laser marking eggs with indicia (22, 24, 26) at a marking station wherein a predetermined window exists during which each egg can be marked as the eggs are conveyed successively along a path at a predetermined speed through an egg grading station, said apparatus comprising: at least first and second laser marking units (50, 52) positioned adjacent said path, each laser marking unit (50, 52) comprising a laser source and being configured to direct a laser beam onto the eggs to mark the same with indicia, the laser beam configured to provide a contrast between unaffected areas and marked areas, as the eggs pass through the marking station; each of said first and second laser marking units (50, 52) configured to mark alternate successive eggs as they pass through the marking station, said first laser marking unit configured to mark a first of said eggs, and said second laser marking unit configured to begin marking a successor of said first egg while the first laser marking unit is still marking the first egg. at least first and second laser marking units (50, 52) positioned adjacent said path, each laser marking unit (50, 52) comprising a laser source and being configured to direct a laser beam onto the eggs to mark the same with indicia, the laser beam configured to provide a contrast between unaffected areas and marked areas, as the eggs pass through the marking station; each of said first and second laser marking units (50, 52) configured to mark alternate successive eggs as they pass through the marking station, said first laser marking unit configured to mark a first of said eggs, and said second laser marking unit configured to begin marking a successor of said first egg while the first laser marking unit is still marking the first egg.
A computer-implemented method comprising: receiving, at one or more processing devices, a first plurality of values representing a set of current coefficients of an adaptive filter disposed in an active noise cancellation system; generating a control signal based on an output of the adaptive filter, wherein the control signal causes production of an anti-noise signal configured to reduce the effect of a noise signal; computing, by the one or more processing devices, a second plurality of values each of which represents an instantaneous difference between a current coefficient and a corresponding preceding coefficient of the adaptive filter; estimating, based on the second plurality of values, one or more instantaneous magnitudes of a transfer function that represents an effect of a secondary path of the active noise cancellation system; updating the first plurality of values based on estimates of the one or more instantaneous magnitudes and on an error signal produced based on residual noise resulting from at least a partial cancellation of the noise signal by the anti-noise signal, to generate a set of updated coefficients for the adaptive filter; and programming the adaptive filter with the set of updated coefficients to affect operation of the adaptive filter. receiving, at one or more processing devices, a first plurality of values representing a set of current coefficients of an adaptive filter disposed in an active noise cancellation system; generating a control signal based on an output of the adaptive filter, wherein the control signal causes production of an anti-noise signal configured to reduce the effect of a noise signal; computing, by the one or more processing devices, a second plurality of values each of which represents an instantaneous difference between a current coefficient and a corresponding preceding coefficient of the adaptive filter; estimating, based on the second plurality of values, one or more instantaneous magnitudes of a transfer function that represents an effect of a secondary path of the active noise cancellation system; updating the first plurality of values based on estimates of the one or more instantaneous magnitudes and on an error signal produced based on residual noise resulting from at least a partial cancellation of the noise signal by the anti-noise signal, to generate a set of updated coefficients for the adaptive filter; and programming the adaptive filter with the set of updated coefficients to affect operation of the adaptive filter.