mhurhangee/patent-ind-claim-en huggingface dataset:
A process for preparing a compound of formula I : or a co-crystal, solvate, salt, or combination thereof, comprising: (a) combining a compound of formula VIII : or a co-crystal, solvate, salt, or combination thereof, with a compound of formula IX : or a co-crystal, solvate, or combination thereof, under alkynylation conditions to provide the compound of formula VI : or a co-crystal, solvate, salt, or combination thereof; (b) combining the compound of formula VI or a co-crystal, solvate, salt, or combination thereof, with a compound of formula VII : or a co-crystal, solvate, salt, or combination thereof, under amide coupling conditions to provide a compound of formula IV : or a co-crystal, solvate, salt, or combination thereof; (c) combining the compound of formula IV or a co-crystal, solvate, salt, or combination thereof, with a compound of formula V : or a co-crystal, solvate, salt, or combination thereof, wherein R 1 is B(OH) 2 , B(OCH(Me)CH 2 C(Me) 2 O), B((1,2-di-O)C 6 H 4 ), B(OCH 2 C(Me) 2 CH 2 O), BF 3 K, B(O 2 CCH 2 N(Me)CH 2 CO 2 ), or B(OC(Me) 2 C(Me) 2 O), under palladium-catalyzed cross-coupling conditions to provide a compound of formula III : or a co-crystal, solvate, salt, or combination thereof; and (d) combining the compound of formula III or a co-crystal, solvate, salt, or combination thereof, with a mesylating reagent under mesylating conditions to provide the compound of formula I or a co-crystal, solvate, salt, or combination thereof. (a) combining a compound of formula VIII : or a co-crystal, solvate, salt, or combination thereof, with a compound of formula IX : or a co-crystal, solvate, or combination thereof, under alkynylation conditions to provide the compound of formula VI : or a co-crystal, solvate, salt, or combination thereof; (b) combining the compound of formula VI or a co-crystal, solvate, salt, or combination thereof, with a compound of formula VII : or a co-crystal, solvate, salt, or combination thereof, under amide coupling conditions to provide a compound of formula IV : or a co-crystal, solvate, salt, or combination thereof; (c) combining the compound of formula IV or a co-crystal, solvate, salt, or combination thereof, with a compound of formula V : or a co-crystal, solvate, salt, or combination thereof, wherein R 1 is B(OH) 2 , B(OCH(Me)CH 2 C(Me) 2 O), B((1,2-di-O)C 6 H 4 ), B(OCH 2 C(Me) 2 CH 2 O), BF 3 K, B(O 2 CCH 2 N(Me)CH 2 CO 2 ), or B(OC(Me) 2 C(Me) 2 O), under palladium-catalyzed cross-coupling conditions to provide a compound of formula III : or a co-crystal, solvate, salt, or combination thereof; and (d) combining the compound of formula III or a co-crystal, solvate, salt, or combination thereof, with a mesylating reagent under mesylating conditions to provide the compound of formula I or a co-crystal, solvate, salt, or combination thereof.
An optical sensor, comprising: a light emitting element that irradiates an irradiating light toward an irradiated member; a first light receiving element for receiving a diffused reflection light into which the irradiating light is diffusely reflected by the irradiated member; a second light receiving element for receiving a specular reflection light into which the irradiating light is specularly reflected by the irradiated member; and wherein a housing for forming a first opening and a second opening , wherein the first opening is an opening configuring a first light path through which the irradiating light passes from the light emitting element to an irradiation region of the irradiated member, and is the opening through which the diffused reflection light to be received by the first light receiving element passes, and the second opening is an opening through which the specular reflection light to be received by the second light receiving element passes, characterised in that a portion of the first light path and a portion of a second light path through which the diffused reflection light to be received by the first light receiving element passes overlap within the housing in a region up until where the irradiating light passes through the first opening. a light emitting element that irradiates an irradiating light toward an irradiated member; a first light receiving element for receiving a diffused reflection light into which the irradiating light is diffusely reflected by the irradiated member; a second light receiving element for receiving a specular reflection light into which the irradiating light is specularly reflected by the irradiated member; and wherein a housing for forming a first opening and a second opening , wherein the first opening is an opening configuring a first light path through which the irradiating light passes from the light emitting element to an irradiation region of the irradiated member, and is the opening through which the diffused reflection light to be received by the first light receiving element passes, and the second opening is an opening through which the specular reflection light to be received by the second light receiving element passes, characterised in that a portion of the first light path and a portion of a second light path through which the diffused reflection light to be received by the first light receiving element passes overlap within the housing in a region up until where the irradiating light passes through the first opening.
An elevator device comprising: a hoisting machine connected to a drive motor via a rotating shaft , a main rope being wound around the hoisting machine; a car connected with one end of the main rope wound around the hoisting machine and a balance weight connected with the other end of the main rope; wherein the elevator device further comprises a disc brake system including a brake disc connected with a rotating shaft of the hoisting machine, and a brake pad that is configured to be pressed against the brake disc to apply braking force to stop the hoisting machine to bring the car and the balance weight into a stopped state, characterised in that a sliding contact face of the brake pad that is configured to be in sliding contact with the brake disc has exactly three grooves, wherein the three grooves comprise one linear groove formed to extend through a center of the brake pad , and two linear grooves formed to be perpendicular to the one linear groove, wherein the two linear grooves are formed in parallel to each other avoiding the center of the brake pad with a distance therebetween, on opposite sides of the center of the brake pad, wherein intersections of the one linear groove with the two linear grooves are positioned off the center of the brake pad in the sliding contact face, and either the one linear groove or the two linear grooves is/are formed along a sliding contact direction of the brake pad and the brake disc. wherein the elevator device further comprises a disc brake system including a brake disc connected with a rotating shaft of the hoisting machine, and a brake pad that is configured to be pressed against the brake disc to apply braking force to stop the hoisting machine to bring the car and the balance weight into a stopped state, characterised in that a sliding contact face of the brake pad that is configured to be in sliding contact with the brake disc has exactly three grooves, wherein the three grooves comprise one linear groove formed to extend through a center of the brake pad , and two linear grooves formed to be perpendicular to the one linear groove, wherein the two linear grooves are formed in parallel to each other avoiding the center of the brake pad with a distance therebetween, on opposite sides of the center of the brake pad, wherein intersections of the one linear groove with the two linear grooves are positioned off the center of the brake pad in the sliding contact face, and either the one linear groove or the two linear grooves is/are formed along a sliding contact direction of the brake pad and the brake disc.
An intracardiac pacemaker device , comprising - a housing that is configured to be implanted entirely within a ventricle (V) of a heart (H), - an electronic module for generating pacing pulses arranged in the housing at the proximal end, - a battery for supplying energy to the electronic module arranged in the housing at the distal end, - an elongated lead extension protruding from the housing , - at least a first electrode arranged on the elongated lead extension protruding from the proximal end of the housing, and - a pacing electrode arranged at the distal end of the housing and a return electrode for applying said pacing pulses to cardiac tissue, wherein the pacing electrode is connected to the housing , wherein the electronic module is configured to carry out measurements of electrical activity via the at least one first electrode of the elongated lead extension characterized in that the electronic module is electrically coupled to the pacing electrode via the housing , and the electronic module is electrically coupled to the at least one first electrode of the elongated lead extension via at least one electrical feedthrough . - a housing that is configured to be implanted entirely within a ventricle (V) of a heart (H), - an electronic module for generating pacing pulses arranged in the housing at the proximal end, - a battery for supplying energy to the electronic module arranged in the housing at the distal end, - an elongated lead extension protruding from the housing , - at least a first electrode arranged on the elongated lead extension protruding from the proximal end of the housing, and - a pacing electrode arranged at the distal end of the housing and a return electrode for applying said pacing pulses to cardiac tissue, wherein the pacing electrode is connected to the housing , wherein the electronic module is configured to carry out measurements of electrical activity via the at least one first electrode of the elongated lead extension characterized in that the electronic module is electrically coupled to the pacing electrode via the housing , and the electronic module is electrically coupled to the at least one first electrode of the elongated lead extension via at least one electrical feedthrough . the electronic module is configured to carry out measurements of electrical activity via the at least one first electrode of the elongated lead extension characterized in that the electronic module is electrically coupled to the pacing electrode via the housing , and the electronic module is electrically coupled to the at least one first electrode of the elongated lead extension via at least one electrical feedthrough .
A roof-top tent comprising: a base plate detachably fixed to a roof of a vehicle , an expansion plate rotatably connected to the base plate to overlap with the base plate , a cover rotatably connected to the base plate and opening and closing an upper surface of the base plate , a tent unit connected to the base plate and spreading out when the cover is rotated from the base plate to allow the upper surface of the base plate to be opened, and a folding assistance unit for assisting the tent unit to prevent the tent unit from being exposed to an outside of the cover when the tent unit is folded back after it is spread out, wherein the tent unit includes a side tent member constituting a side surface thereof, and the folding assistance unit includes a side folding strap connected to at least one of the base plate and the cover , characterized in that the folding assistance unit further comprises an expansion hook provided on one surface of the expansion plate , and the side folding strap is configured to extend through the expansion hook , wherein the one surface of the expansion plate is a surface facing upward when the expansion plate overlaps with the base plate . a base plate detachably fixed to a roof of a vehicle , an expansion plate rotatably connected to the base plate to overlap with the base plate , a cover rotatably connected to the base plate and opening and closing an upper surface of the base plate , a tent unit connected to the base plate and spreading out when the cover is rotated from the base plate to allow the upper surface of the base plate to be opened, and a folding assistance unit for assisting the tent unit to prevent the tent unit from being exposed to an outside of the cover when the tent unit is folded back after it is spread out, wherein the tent unit includes a side tent member constituting a side surface thereof, and the folding assistance unit includes a side folding strap connected to at least one of the base plate and the cover , characterized in that the folding assistance unit further comprises an expansion hook provided on one surface of the expansion plate , and the side folding strap is configured to extend through the expansion hook , wherein the one surface of the expansion plate is a surface facing upward when the expansion plate overlaps with the base plate .
A liquid medicine discharge device for being used in a liquid medicine dispensing device having a mounting module comprising: a nozzle plate having a nozzle from which a liquid medicine can be discharged; a pressure chamber structure having an outlet on a first surface side and an inlet on a second surface side and a pressure chamber in fluid communication with the nozzle via the outlet on the first side; a flat plate-shaped base member having a rectangular shape; a liquid holding container on the second surface and in fluid communication with the pressure chamber via the inlet on the second surface; and an actuator configured to cause the liquid medicine to be ejected from the nozzle by changing pressure in the pressure chamber and including a piezoelectric element wherein the base member provided with engaging recessed portions at both ends in a longitudinal direction for mounting and fixing to the mounting module of the liquid medicine dispensing device , characterized in that the piezoelectric element is formed of a lead-free material wherein the lead-free material has a structure selected from a perovskite structure, a complex perovskite structure, an ilmenite structure, an oxide of a tungsten bronze structure, a pyrochlore perovskite structure, a layered structure oxide, and a bismuth layered structure ferroelectrics. a nozzle plate having a nozzle from which a liquid medicine can be discharged; a pressure chamber structure having an outlet on a first surface side and an inlet on a second surface side and a pressure chamber in fluid communication with the nozzle via the outlet on the first side; a flat plate-shaped base member having a rectangular shape; a liquid holding container on the second surface and in fluid communication with the pressure chamber via the inlet on the second surface; and an actuator configured to cause the liquid medicine to be ejected from the nozzle by changing pressure in the pressure chamber and including a piezoelectric element wherein the base member provided with engaging recessed portions at both ends in a longitudinal direction for mounting and fixing to the mounting module of the liquid medicine dispensing device , characterized in that the piezoelectric element is formed of a lead-free material wherein the lead-free material has a structure selected from a perovskite structure, a complex perovskite structure, an ilmenite structure, an oxide of a tungsten bronze structure, a pyrochlore perovskite structure, a layered structure oxide, and a bismuth layered structure ferroelectrics.
A frame antenna comprising: a conductive block having at least one surface-mount electronic component mounted thereon; a metallic frame having a continuous annular structure with an inner void region, the metallic frame being disposed around a periphery of the conductive block and separated from the conductive block by a predetermined distance, the metallic frame overlapping an edge of an upper surface of the conductive block; two or more antenna feeds disposed between the metallic frame and the conductive block; and one or more grounding connections disposed between the metallic frame and the conductive block; characterized in that : the metallic frame between each of the antenna feeds and correspondent one of the grounding connections is configured to have a continuous conductive annular structure. a conductive block having at least one surface-mount electronic component mounted thereon; a metallic frame having a continuous annular structure with an inner void region, the metallic frame being disposed around a periphery of the conductive block and separated from the conductive block by a predetermined distance, the metallic frame overlapping an edge of an upper surface of the conductive block; two or more antenna feeds disposed between the metallic frame and the conductive block; and one or more grounding connections disposed between the metallic frame and the conductive block; characterized in that : the metallic frame between each of the antenna feeds and correspondent one of the grounding connections is configured to have a continuous conductive annular structure.
Method for determining a maneuvering time of an autonomous vehicle, called an ego-vehicle, traveling at a first speed on a traffic lane, said ego-vehicle being preceded by a vehicle, called a target vehicle, traveling on the traffic lane at a second speed, the maneuver being intended to adapt the speed of the ego-vehicle from the first speed to the second speed, said method, said method being implemented by a processor and comprising the steps of: - Acquisition of the first speed, called the speed of the ego-vehicle; - Acquisition of a distance between the ego-vehicle and the target vehicle, called inter-vehicular distance; - Acquisition of the second speed, called the speed of the target vehicle; Determining a maneuvering time, tm , based on the speed of the ego-vehicle, on the inter-vehicular distance, on the speed of the target vehicle, and on a predetermined inter-vehicular time, the maneuvering time is given by the equation tm = k D 0 − V 2 ∗ Tiv V 1 − V 2 , where V1 is the first speed, the speed of the ego-vehicle, V2 is the second speed, speed of the target vehicle, D0 is the distance between the ego-vehicle and the target vehicle, Tiv is a predetermined inter-vehicular time, k is a predetermined constant. - Acquisition of the first speed, called the speed of the ego-vehicle; - Acquisition of a distance between the ego-vehicle and the target vehicle, called inter-vehicular distance; - Acquisition of the second speed, called the speed of the target vehicle;
A method for managing icing conditions on a rotary aircraft via a first and second ice protection controller , wherein each ice protection controller communicates via one respective channel with an upper distributor , wherein each channel includes a respective digital communication bus, wherein each ice protection controller communicates to the upper distributor via the respective digital communication bus, and wherein each digital communication bus is routed through a respective power converter cutout unit and a slip ring assembly , the method comprising: receiving an icing condition signal from a respective dicing rate sensor at each ice protection controller ; determining, in response to the icing condition signal, a de-icing signal based at least in part on a liquid water content (LWC); and transmitting, via the respective digital communication bus disposed in at least part of the slip ring assembly , the de-icing signal to the upper distributor to cause the upper distributor to transmit power to one or more heating elements for a respective rotor blade. receiving an icing condition signal from a respective dicing rate sensor at each ice protection controller ; determining, in response to the icing condition signal, a de-icing signal based at least in part on a liquid water content (LWC); and transmitting, via the respective digital communication bus disposed in at least part of the slip ring assembly , the de-icing signal to the upper distributor to cause the upper distributor to transmit power to one or more heating elements for a respective rotor blade.
A radio wave absorber comprising: a radio wave absorbing film formed on a substrate, wherein: the radio wave absorber has a peak radio wave absorption in a frequency selected from a band of 60-270 GHz; the radio wave absorbing film comprises epsilon-type iron oxide; the epsilon-type iron oxide is at least one selected from: ε-Fe 2 O 3 crystal; and crystal of which the crystalline structure and space group are the same as those of the ε-Fe 2 O 3 crystal, in which a part of Fe sites in the ε-Fe 2 O 3 crystal is substituted by an element M other than Fe, the crystal being represented by a formula ε-M x Fe 2-x O 3 wherein x is greater than 0 and less than 2; characterized in that the content of the epsilon-type iron oxide in the radio wave absorbing film is at least 60% by mass, the relative permittivity of the radio wave absorbing film is 6.5 to 65, said radio wave absorbing film comprises a carbon nanotube, and the content of the carbon nanotube in the radio wave absorbing film is 1 to 10% by mass. the radio wave absorber has a peak radio wave absorption in a frequency selected from a band of 60-270 GHz; the radio wave absorbing film comprises epsilon-type iron oxide; the epsilon-type iron oxide is at least one selected from: ε-Fe 2 O 3 crystal; and crystal of which the crystalline structure and space group are the same as those of the ε-Fe 2 O 3 crystal, in which a part of Fe sites in the ε-Fe 2 O 3 crystal is substituted by an element M other than Fe, the crystal being represented by a formula ε-M x Fe 2-x O 3 wherein x is greater than 0 and less than 2; characterized in that the content of the epsilon-type iron oxide in the radio wave absorbing film is at least 60% by mass, the relative permittivity of the radio wave absorbing film is 6.5 to 65, said radio wave absorbing film comprises a carbon nanotube, and the content of the carbon nanotube in the radio wave absorbing film is 1 to 10% by mass.