mhurhangee/patent-ind-claim-en huggingface dataset:
A turbine blade for a gas turbine engine , comprising: an airfoil extending along a span (S) from a base to a tip and along a chord (C) from a leading edge to a trailing edge , the airfoil having a pressure side and a suction side , a tip pocket at the tip of the airfoil , the tip pocket at least partially surrounded by a peripheral tip wall defining a portion of the pressure and suction sides ; at least one internal cooling passage in the airfoil, the at least one internal cooling passage having at least one outlet communicating with the tip pocket ; and a reinforcing bump located on the pressure side of the airfoil and protruding from a baseline surface (B) of the peripheral tip wall to a bump end located into the tip pocket , characterized in the reinforcing bump overlapping a location (L1) where a curvature of a concave portion of the pressure side of the airfoil is maximal. an airfoil extending along a span (S) from a base to a tip and along a chord (C) from a leading edge to a trailing edge , the airfoil having a pressure side and a suction side , a tip pocket at the tip of the airfoil , the tip pocket at least partially surrounded by a peripheral tip wall defining a portion of the pressure and suction sides ; at least one internal cooling passage in the airfoil, the at least one internal cooling passage having at least one outlet communicating with the tip pocket ; and a reinforcing bump located on the pressure side of the airfoil and protruding from a baseline surface (B) of the peripheral tip wall to a bump end located into the tip pocket , characterized in the reinforcing bump overlapping a location (L1) where a curvature of a concave portion of the pressure side of the airfoil is maximal.
A quick-locking piston-type floating power connector, comprising a housing assembly , a contact assembly , and a base assembly , wherein the housing assembly is sleeved on an outer wall of one end of the base assembly , the contact assembly extends horizontally, one end of the contact assembly is fixed in the base assembly , the other end of the contact assembly protrudes from the base assembly , a protruding portion of the other end of the contact assembly is embedded in a cover plate assembly , an end portion of the other end of the contact assembly is provided with a floating contact member of a piston-type structure, the floating contact member extends vertically and is mounted in the cover plate assembly , a mounting port of the floating contact member protrudes from the cover plate assembly , and the floating contact member is adapted to meet the electrical assembly requirements of a PCB board ; wherein the floating contact member comprises a sleeve , a crown spring , and a guide pin , a bottom of the guide pin is embedded in an end portion of the contact assembly , the guide pin extends into an inner bottom portion of the sleeve , an inner top portion of the sleeve is provided with an inner thread structure, an outer wall of the guide pin is sleeved with the crown spring , the crown spring is disposed between the sleeve and the guide pin , and the crown spring , the guide pin , and the sleeve are in electrical contact via elastic crimping, and the sleeve is configured to be slidable up and down to adjust a position of the mounting port of the floating contact member .
A thermostatic valve for controlling heated fluid, said thermostatic valve comprising: an adjustment cap for adjusting the level of desired comfort, said adjustment cap being externally and internally exposable to ambient air, a sensor body disposed within said adjustment cap, said sensor body movably responsive to sensed ambient air, a push rod positioned adjacent said sensor body and movable in response to the movement of said sensor body, a valve body , said valve body having disposed therein a movable valve member for allowing and for restricting water flow within said valve, said movable valve member being responsive to movement of said push rod, and a heat shield disposed between said valve body and said sensor body, characterised in that said heat shield is provided with a heat reflective material which is exposed to the valve body, said heat shield having a centrally located through hole through which the push rod extends. an adjustment cap for adjusting the level of desired comfort, said adjustment cap being externally and internally exposable to ambient air, a sensor body disposed within said adjustment cap, said sensor body movably responsive to sensed ambient air, a push rod positioned adjacent said sensor body and movable in response to the movement of said sensor body, a valve body , said valve body having disposed therein a movable valve member for allowing and for restricting water flow within said valve, said movable valve member being responsive to movement of said push rod, and a heat shield disposed between said valve body and said sensor body, characterised in that said heat shield is provided with a heat reflective material which is exposed to the valve body, said heat shield having a centrally located through hole through which the push rod extends.
A method of calibrating a three-dimensional measurement system having a plurality of cameras and at least one projector , the method comprising: performing a full calibration for each camera/projector pair, the full calibration generating at least two sets of correction matrices; and subsequently performing an updated calibration for each camera/projector pair, wherein the updated calibration changes less than all of the sets of correction matrices; and wherein performing a full calibration includes performing a camera calibration where each of the cameras acquires images of a well-characterized calibration target at a number of different, known elevations; wherein the images acquired by the cameras are analyzed to establish a geometrical transformation between camera pixel space and physical space; wherein performing a full calibration includes performing a projector calibration where a pattern is projected onto a target and each camera acquires images of the projected pattern as the target is positioned at a plurality of different heights; wherein the images acquired during the projector calibration are analyzed to establish a geometrical transformation between camera pixel space and source-pattern space. performing a full calibration for each camera/projector pair, the full calibration generating at least two sets of correction matrices; and subsequently performing an updated calibration for each camera/projector pair, wherein the updated calibration changes less than all of the sets of correction matrices; and wherein performing a full calibration includes performing a camera calibration where each of the cameras acquires images of a well-characterized calibration target at a number of different, known elevations; wherein the images acquired by the cameras are analyzed to establish a geometrical transformation between camera pixel space and physical space; wherein performing a full calibration includes performing a projector calibration where a pattern is projected onto a target and each camera acquires images of the projected pattern as the target is positioned at a plurality of different heights; wherein the images acquired during the projector calibration are analyzed to establish a geometrical transformation between camera pixel space and source-pattern space.
A torch tip assembly of a plasma arc torch for delivering a diffused stream of plasma arc to a workpiece to perform a gouging operation, the assembly comprising: a nozzle including (i) a nozzle body defining a central longitudinal axis extending between a proximal end and a distal end , (ii) a nozzle exit orifice at the distal end of the nozzle body, the nozzle exit orifice defining at least a bore for conducting the plasma arc therethrough, and a set of gas passages disposed about the bore ; and a counter bore , disposed relative to the distal end of the nozzle body, being fluidly connected to the bore and located distally relative to the bore ; wherein at least one of the bore or the counter bore has a non-circular cross-sectional shape in a plane perpendicular to the longitudinal axis, the non-circular cross-sectional shape configured to enable a second non-circular cross-sectional shape in the plasma arc adapted to diffuse the plasma arc. a nozzle including (i) a nozzle body defining a central longitudinal axis extending between a proximal end and a distal end , (ii) a nozzle exit orifice at the distal end of the nozzle body, the nozzle exit orifice defining at least a bore for conducting the plasma arc therethrough, and a set of gas passages disposed about the bore ; and a counter bore , disposed relative to the distal end of the nozzle body, being fluidly connected to the bore and located distally relative to the bore ; wherein at least one of the bore or the counter bore has a non-circular cross-sectional shape in a plane perpendicular to the longitudinal axis, the non-circular cross-sectional shape configured to enable a second non-circular cross-sectional shape in the plasma arc adapted to diffuse the plasma arc.
Method for producing a bulk material essentially from foamed or blown mineral or oxidic particles by thermal treatment of a bed of basic particles, characterized in that the thermal treatment comprises transporting an obliquely conveyed or horizontal layer or a trickle stream of the bed through a radiation field of NIR radiation with a wavelength from about 0.8 μm to about 1.5 μm and which has a power density of at least 50 kW/m2, wherein halogen lamps are used to generate the NIR radiation field, the radiation of which is focused on the layer or trickle stream of the bulk material and wherein the layer or trickle stream is exposed to the NIR radiation field for a period of time in the range between 0.5 and 20 s, in particular between 5 and 15 s, wherein the basic particles are a sand with a grain size in the range of 50-500 μm and a water glass content of at least 40 weight % and wherein the bulk material of foamed or blown sand particles at the end of the thermal treatment, without a separation step, comprises a proportion of at least 60%, in particular 80% or more, of perlite particles with a substantially closed surface and/or the particle size thereof is in the range of 0.3 mm-2 mm. the thermal treatment comprises transporting an obliquely conveyed or horizontal layer or a trickle stream of the bed through a radiation field of NIR radiation with a wavelength from about 0.8 μm to about 1.5 μm and which has a power density of at least 50 kW/m2, wherein halogen lamps are used to generate the NIR radiation field, the radiation of which is focused on the layer or trickle stream of the bulk material and wherein the layer or trickle stream is exposed to the NIR radiation field for a period of time in the range between 0.5 and 20 s, in particular between 5 and 15 s, wherein the basic particles are a sand with a grain size in the range of 50-500 μm and a water glass content of at least 40 weight % and wherein the bulk material of foamed or blown sand particles at the end of the thermal treatment, without a separation step, comprises a proportion of at least 60%, in particular 80% or more, of perlite particles with a substantially closed surface and/or the particle size thereof is in the range of 0.3 mm-2 mm.
An air conditioner comprising a compressor , and a heat storage device disposed around the compressor , the heat storage device comprising: a heat storage material , a heat storage tank to accommodate the heat storage material and a heat storage heat exchanger in an internal space of a tank body delimited by an outer side wall , a bottom wall, and an inner wall, wherein heat generated by the compressor is transferred through the inner wall of the tank body and stored in the heat storage material , characterised in that a material of the tank body has a greater contractility than a material of the compressor such that a degree of contact between the compressor and the inner wall of the tank body is changed depending on temperature changes of the compressor , in that: i) the degree of contact is increased at a low temperature thereby increasing a heat-transfer performance from the compressor to the heat storage material , and ii) the degree of contact is reduced at a high temperature thereby reducing the heat-transfer performance from the compressor to the heat storage material . a heat storage material , a heat storage tank to accommodate the heat storage material and a heat storage heat exchanger in an internal space of a tank body delimited by an outer side wall , a bottom wall, and an inner wall, wherein heat generated by the compressor is transferred through the inner wall of the tank body and stored in the heat storage material , characterised in that a material of the tank body has a greater contractility than a material of the compressor such that a degree of contact between the compressor and the inner wall of the tank body is changed depending on temperature changes of the compressor , in that: i) the degree of contact is increased at a low temperature thereby increasing a heat-transfer performance from the compressor to the heat storage material , and ii) the degree of contact is reduced at a high temperature thereby reducing the heat-transfer performance from the compressor to the heat storage material . i) the degree of contact is increased at a low temperature thereby increasing a heat-transfer performance from the compressor to the heat storage material , and ii) the degree of contact is reduced at a high temperature thereby reducing the heat-transfer performance from the compressor to the heat storage material .
A light-diffusing element comprising: a solidified glass monolith including internal voids , said glass monolith having a cross-section with a dimension between 1 mm and 20 mm, a length of at least 1 cm, and a numerical aperture of at least 0.7, said internal voids having a cross-section with a dimension between 100 nm and 20 μm and occupying between 1% and 15% of said cross-section and the volume of said glass monolith; a polymer jacket, said polymer jacket surrounding said light-diffusing element, wherein an air gap is present between the light-diffusing element and the polymer jacket; and a scattering layer, said scattering layer surrounding said light-diffusing element, wherein said polymer jacket surrounds said scattering layer, the scattering layer comprises a plurality of nano- or microparticles with an average diameter of from 200 nm to 10 μm, and the concentration of particles in the scattering layer is varied along the length of the element. a solidified glass monolith including internal voids , said glass monolith having a cross-section with a dimension between 1 mm and 20 mm, a length of at least 1 cm, and a numerical aperture of at least 0.7, said internal voids having a cross-section with a dimension between 100 nm and 20 μm and occupying between 1% and 15% of said cross-section and the volume of said glass monolith; a polymer jacket, said polymer jacket surrounding said light-diffusing element, wherein an air gap is present between the light-diffusing element and the polymer jacket; and a scattering layer, said scattering layer surrounding said light-diffusing element, wherein said polymer jacket surrounds said scattering layer, the scattering layer comprises a plurality of nano- or microparticles with an average diameter of from 200 nm to 10 μm, and the concentration of particles in the scattering layer is varied along the length of the element.
A sensor arrangement (10; 44) for the capacitive detection of an object , comprising: a support (14; 48); an electrically conductive cap (12; 46) associated with the support (14; 48); and an electrically insulated conductor (18; 50) which extends at least partly in loop shape between the cap (12; 46) and the support (14; 48) and which is provided with a connector for a control unit , wherein a first end of the conductor (18; 50) is returned to a second end of the conductor (18; 50) to form a single conductor loop, wherein the loop shape of the conductor (18; 50) is adapted to the shape of the cap (12; 46), and wherein the cap (12; 46) and the support (14; 48) together form a housing for the conductor (18; 50), said housing having a sealing effect against external influences. a support (14; 48); an electrically conductive cap (12; 46) associated with the support (14; 48); and an electrically insulated conductor (18; 50) which extends at least partly in loop shape between the cap (12; 46) and the support (14; 48) and which is provided with a connector for a control unit , wherein a first end of the conductor (18; 50) is returned to a second end of the conductor (18; 50) to form a single conductor loop, wherein the loop shape of the conductor (18; 50) is adapted to the shape of the cap (12; 46), and wherein the cap (12; 46) and the support (14; 48) together form a housing for the conductor (18; 50), said housing having a sealing effect against external influences.
A bioprocess for the preparation of glycosylated Colchicine, its analogs and derivatives of formula (I) wherein the process is biotransformation, X represents O or S, and R 1 represents C 1 -C 6 alkyl, R 2 is a glycoside residue, R represents hydrogen, C 1 -C 6 alkyl, formyl or acetyl, which comprises contacting colchicines, its analogs and derivatives of formula (II) wherein X represents O or S, and R 1 represents C 1 -C 6 alkyl, R 3 represents hydrogen or methyl group, R represents hydrogen, C 1 -C 6 alkyl, formyl or acetyl, with Bacillus aryabhattai in a suitable condition and isolating glycosylated colchicines, its analogs and derivatives of formula (I), wherein the biotransformation is carried using a microorganism of the species Bacillus aryabhattai, a gram positive bacterium with accession number MTCC 5875.
A method of dynamically adapting an application of one or more substances in a cosmetic facial treatment based on a current facial skin profile, comprising: using at least one sensor for measuring at least one current value of at least one variable skin characteristic of facial skin of a patient ; acquiring at least one personal skin characteristic of facial skin of the patient; calculating a current facial skin status of the patient according to the at least one personal skin characteristic and the at least one current value; determining instructions to operate a plurality of applicator elements of a cosmetic treatment applicator according to the current facial skin status; and applying one or more cosmetic substances by one or more of the plurality of applicator elements of the treatment applicator according to the instructions; wherein the instructions define which applicator element or elements of the plurality of applicator elements apply which treatment and for how long, for each of a plurality of different stages of the cosmetic facial treatment; and wherein the plurality of treatment applicator elements comprises an applicator element for applying RF treatment and an applicator element for applying electrophoresis, wherein the RF treatment is applied at intensity of 5-30 Watt and frequency of 0.5-5 MegaHertz (MHz), and electrophoresis is applied at frequency of 30-200 KiloHertz (KHZ) and intensity of 30-200 volts. using at least one sensor for measuring at least one current value of at least one variable skin characteristic of facial skin of a patient ; acquiring at least one personal skin characteristic of facial skin of the patient; calculating a current facial skin status of the patient according to the at least one personal skin characteristic and the at least one current value; determining instructions to operate a plurality of applicator elements of a cosmetic treatment applicator according to the current facial skin status; and applying one or more cosmetic substances by one or more of the plurality of applicator elements of the treatment applicator according to the instructions; wherein the instructions define which applicator element or elements of the plurality of applicator elements apply which treatment and for how long, for each of a plurality of different stages of the cosmetic facial treatment; and wherein the plurality of treatment applicator elements comprises an applicator element for applying RF treatment and an applicator element for applying electrophoresis, wherein the RF treatment is applied at intensity of 5-30 Watt and frequency of 0.5-5 MegaHertz (MHz), and electrophoresis is applied at frequency of 30-200 KiloHertz (KHZ) and intensity of 30-200 volts.
An electronic device comprising: a sensor for sensing motion of the electronic device; an application processor ; and a state determination unit configured to: while the application processor is in a sleep state, control to cause sensing information relating to the motion of the electronic device sensed by the sensor to be stored in a memory of the state determination unit, and before entering the sleep state, reporting existence of the stored sensing information to the application processor and transmitting the stored sensing information to the application processor, wherein the application processor is configured, when waking up from the sleep state, to: receive the sensing information from the memory of the state determination unit, and analyze the obtained sensing information. a sensor for sensing motion of the electronic device; an application processor ; and a state determination unit configured to: while the application processor is in a sleep state, control to cause sensing information relating to the motion of the electronic device sensed by the sensor to be stored in a memory of the state determination unit, and before entering the sleep state, reporting existence of the stored sensing information to the application processor and transmitting the stored sensing information to the application processor, while the application processor is in a sleep state, control to cause sensing information relating to the motion of the electronic device sensed by the sensor to be stored in a memory of the state determination unit, and before entering the sleep state, reporting existence of the stored sensing information to the application processor and transmitting the stored sensing information to the application processor, wherein the application processor is configured, when waking up from the sleep state, to: receive the sensing information from the memory of the state determination unit, and analyze the obtained sensing information. receive the sensing information from the memory of the state determination unit, and analyze the obtained sensing information.
A method performed by a User Equipment, UE, , the method comprising: transmitting a request to join a particular multicast-broadcast services, MBS, session, the request comprising an MBS session identifier, ID identifying the particular MBS session, in response to the request to join the particular MBS session, receiving (s302) a first message comprising a group ID allocated for the particular MBS session, the group ID being a group 5G-S-Temporary Mobile Subscriber Identity, 5G-S-TMSI; and while camping on radio access network, RAN, node that does not support MBS services and while being in a radio resource control, RRC, state other than RRC_CONNECTED, receiving (s304) from the RAN node a paging message; and determining (s306) whether the paging message comprises the group ID. transmitting a request to join a particular multicast-broadcast services, MBS, session, the request comprising an MBS session identifier, ID identifying the particular MBS session, in response to the request to join the particular MBS session, receiving (s302) a first message comprising a group ID allocated for the particular MBS session, the group ID being a group 5G-S-Temporary Mobile Subscriber Identity, 5G-S-TMSI; and while camping on radio access network, RAN, node that does not support MBS services and while being in a radio resource control, RRC, state other than RRC_CONNECTED, receiving (s304) from the RAN node a paging message; and determining (s306) whether the paging message comprises the group ID.