mhurhangee/patent-ind-claim-en huggingface dataset:
An airfoil array comprising: an endwall ; a first airfoil and a second airfoil each extending radially from the endwall and having a first side and an opposite second side extending along an axial chord between a leading edge and a trailing edge ; a first profiled region protruding from the endwall along the first side of the first airfoil ; a second profiled region protruding from the endwall along the second side of the second airfoil ; and characterized in that a third profiled region recessed into the endwall approximately equidistant from the first side of the first airfoil and the second side of the second airfoil , wherein: the first profiled region includes a first surface peak located between 0% and 50% of the axial chord ; the first profiled region extends at least 90% of the axial chord and at least 50% of a pitch (D) between the first airfoil and the second airfoil ; the second profiled region includes a second surface peak located between 0% and 50% of the axial chord ; and the third profiled region extends along approximately an aft 50% of the axial chord and extends along approximately 30% of the pitch (D) between the first airfoil and the second airfoil . an endwall ; a first airfoil and a second airfoil each extending radially from the endwall and having a first side and an opposite second side extending along an axial chord between a leading edge and a trailing edge ; a first profiled region protruding from the endwall along the first side of the first airfoil ; a second profiled region protruding from the endwall along the second side of the second airfoil ; and characterized in that a third profiled region recessed into the endwall approximately equidistant from the first side of the first airfoil and the second side of the second airfoil , wherein: the first profiled region includes a first surface peak located between 0% and 50% of the axial chord ; the first profiled region extends at least 90% of the axial chord and at least 50% of a pitch (D) between the first airfoil and the second airfoil ; the second profiled region includes a second surface peak located between 0% and 50% of the axial chord ; and the third profiled region extends along approximately an aft 50% of the axial chord and extends along approximately 30% of the pitch (D) between the first airfoil and the second airfoil . the first profiled region includes a first surface peak located between 0% and 50% of the axial chord ; the first profiled region extends at least 90% of the axial chord and at least 50% of a pitch (D) between the first airfoil and the second airfoil ; the second profiled region includes a second surface peak located between 0% and 50% of the axial chord ; and the third profiled region extends along approximately an aft 50% of the axial chord and extends along approximately 30% of the pitch (D) between the first airfoil and the second airfoil .
A chemical-mechanical polishing pad comprising a thermoplastic polyurethane polishing layer having a ratio of storage modulus at 25 degrees C to storage modulus at 80 degrees C of 80 or more, and wherein the thermoplastic polyurethane polishing layer has a tensile elongation of 320 percent or less.
A contactless charger comprising: a charging surface including an array of transmitter sub arrays , each transmitter sub array having a plurality of ultrasonic transmitters ; and logic configured to: detect a location of an adjacent ultrasonic receiver of a battery powered device relative to the charging surface based on a beam reflection energy with respect to a beam reflector positioned at a perimeter of the adjacent ultrasonic receiver; selectively activate one or more of the transmitter sub arrays based on the location to focus an ultrasonic beam on the adjacent ultrasonic receiver, wherein a plurality of the transmitter sub arrays have a light detector and an ultrasonic ranger; detect a movement of the adjacent ultrasonic receiver; adjust the focus of the ultrasonic beam in response to the movement; receive one or more signals from the light detectors; receive one or more signals from the ultrasonic rangers; and determine a three-dimensional characteristic of the movement based on the one or more signals from the light detectors and the one or more signals from the ultrasonic rangers. a charging surface including an array of transmitter sub arrays , each transmitter sub array having a plurality of ultrasonic transmitters ; and logic configured to: detect a location of an adjacent ultrasonic receiver of a battery powered device relative to the charging surface based on a beam reflection energy with respect to a beam reflector positioned at a perimeter of the adjacent ultrasonic receiver; selectively activate one or more of the transmitter sub arrays based on the location to focus an ultrasonic beam on the adjacent ultrasonic receiver, wherein a plurality of the transmitter sub arrays have a light detector and an ultrasonic ranger; detect a movement of the adjacent ultrasonic receiver; adjust the focus of the ultrasonic beam in response to the movement; receive one or more signals from the light detectors; receive one or more signals from the ultrasonic rangers; and determine a three-dimensional characteristic of the movement based on the one or more signals from the light detectors and the one or more signals from the ultrasonic rangers. detect a location of an adjacent ultrasonic receiver of a battery powered device relative to the charging surface based on a beam reflection energy with respect to a beam reflector positioned at a perimeter of the adjacent ultrasonic receiver; selectively activate one or more of the transmitter sub arrays based on the location to focus an ultrasonic beam on the adjacent ultrasonic receiver, wherein a plurality of the transmitter sub arrays have a light detector and an ultrasonic ranger; detect a movement of the adjacent ultrasonic receiver; adjust the focus of the ultrasonic beam in response to the movement; receive one or more signals from the light detectors; receive one or more signals from the ultrasonic rangers; and determine a three-dimensional characteristic of the movement based on the one or more signals from the light detectors and the one or more signals from the ultrasonic rangers.
An optical calibration tool (200/300) applied to calibrate a light emitter and a light receiver of an instrument , comprising: a first body having a first engaging port and a second engaging port ; a light emitter disposed in the first body ; a light receiver disposed in the first body ; a second body having a third engaging port , two light transmitting portions , and a channel communicated with each other, wherein the third engaging port is configured to selectively engage one of the first engaging port and the second engaging port , the two light transmitting portions are located at opposite sides of the second body ; a light reflecting member (250/350) disposed in the channel between said two light transmitting portions ; and an actuating member (280/380) configured to rotate or deform the light reflecting member (250/350), wherein when the third engaging port is engaged with the first engaging port , the light emitter is optically coupled to the light reflecting member (250/350), and when the third engaging port is engaged with the second engaging port , the light receiver is optically coupled to the light reflecting member (250/350). a first body having a first engaging port and a second engaging port ; a light emitter disposed in the first body ; a light receiver disposed in the first body ; a second body having a third engaging port , two light transmitting portions , and a channel communicated with each other, wherein the third engaging port is configured to selectively engage one of the first engaging port and the second engaging port , the two light transmitting portions are located at opposite sides of the second body ; a light reflecting member (250/350) disposed in the channel between said two light transmitting portions ; and an actuating member (280/380) configured to rotate or deform the light reflecting member (250/350), wherein when the third engaging port is engaged with the first engaging port , the light emitter is optically coupled to the light reflecting member (250/350), and when the third engaging port is engaged with the second engaging port , the light receiver is optically coupled to the light reflecting member (250/350).
A sample analyzer comprising: a microcomputer comprising a controller configured to receive a designation of one measurement mode including a blood measurement mode for measuring the blood sample or a body fluid measurement mode for measuring the body fluid sample, and a measuring part configured to prepare a measurement sample from a blood sample or a body fluid sample that differs from the blood sample, measure the prepared measurement sample, and obtain characteristic information representing characteristics of components in the measurement sample, wherein the controller is configured to control the measuring part to measure a blank sample that contains neither the blood sample nor the body fluid sample when the measurement mode is switched from the blood measurement mode to the body fluid measurement mode. a microcomputer comprising a controller configured to receive a designation of one measurement mode including a blood measurement mode for measuring the blood sample or a body fluid measurement mode for measuring the body fluid sample, and a measuring part configured to prepare a measurement sample from a blood sample or a body fluid sample that differs from the blood sample, measure the prepared measurement sample, and obtain characteristic information representing characteristics of components in the measurement sample, wherein the controller is configured to control the measuring part to measure a blank sample that contains neither the blood sample nor the body fluid sample when the measurement mode is switched from the blood measurement mode to the body fluid measurement mode.
A crystal of iosimenol characterized by (i) a powder x-ray diffraction pattern having four or more 2θ ± 0.2 peaks and selected from 8.1°, 9.6°, 9.9°, 10.0°, 10.7°, 15.4°, 16.9°, 18.0°, 18.6°, 18.9°, 20.1°, 20.4°, 21.9°, 22.2°, 22.5°, 24.8°, 26.1°, 26.8°, 27.5°, 28.9°, 29.4°, 29.7°, 30.5°, 34.1° and 34.6°, wherein measurement of said crystal is at a temperature of 293 K; or (ii) unit cell parameters at T = 293K equal to the following: a = 21.8919 A, b = 9.8210 Å, c = 20.0233 A, α = 90°, β = 94.955 °, γ = 90°, volume 4289 Å 3 and a monoclinic P21/a space group. (i) a powder x-ray diffraction pattern having four or more 2θ ± 0.2 peaks and selected from 8.1°, 9.6°, 9.9°, 10.0°, 10.7°, 15.4°, 16.9°, 18.0°, 18.6°, 18.9°, 20.1°, 20.4°, 21.9°, 22.2°, 22.5°, 24.8°, 26.1°, 26.8°, 27.5°, 28.9°, 29.4°, 29.7°, 30.5°, 34.1° and 34.6°, wherein measurement of said crystal is at a temperature of 293 K; or (ii) unit cell parameters at T = 293K equal to the following: a = 21.8919 A, b = 9.8210 Å, c = 20.0233 A, α = 90°, β = 94.955 °, γ = 90°, volume 4289 Å 3 and a monoclinic P21/a space group.
A process for preparing a product comprising exenatide, the process comprising: (i) providing a coating liquid comprising exenatide, a saccharide and a water-miscible solvent; (ii) providing particles comprising one or more water-soluble gel-forming compounds; (iii) fluidising the particles within a processing chamber of an apparatus in such a manner that the particles move in an upward direction within the chamber in a helical path; (iv) spraying the coating liquid onto the particles so as to provide coated particles; (v) allowing the coated particles to dry. (i) providing a coating liquid comprising exenatide, a saccharide and a water-miscible solvent; (ii) providing particles comprising one or more water-soluble gel-forming compounds; (iii) fluidising the particles within a processing chamber of an apparatus in such a manner that the particles move in an upward direction within the chamber in a helical path; (iv) spraying the coating liquid onto the particles so as to provide coated particles; (v) allowing the coated particles to dry.
An ice crushing device , comprising: a housing assembly comprises a housing and an ice bucket supported in the housing ; a driving mechanism for driving the ice bucket to rotate, at least a portion of the driving mechanism being mounted in the housing ; an ice crushing mechanism disposed in the ice bucket ; the housing assembly further comprises an ice-discharging plate provided at a bottom of the ice bucket , the ice-discharging plate is provided with an ice-discharging port communicated with the ice bucket , ice cubes prepared by an ice maker are discharged out of the ice-discharging port after being crushed in the ice bucket by the ice crushing mechanism , wherein the housing comprises a first portion that houses the ice bucket and a second portion in which the driving mechanism is mounted, wherein the housing assembly further comprises a bottom plate , a bottom of the second portion is open, the bottom plate covers the bottom of the second portion to seal at least a portion of the driving mechanism between the second portion and the bottom plate , characterized in that the housing comprises a groove extending along the circumferential direction of the ice bucket is provided between the ice-discharging plate and the first portion , the groove is communicated with the ice-discharging port , and a lower edge of the ice bucket projects into the groove , the bottom of the ice-discharging plate is provided with a protrusion at a position corresponding to the groove , the bottom plate is provided with a recess , and the protrusion is snap fitted in the recess . a housing assembly comprises a housing and an ice bucket supported in the housing ; a driving mechanism for driving the ice bucket to rotate, at least a portion of the driving mechanism being mounted in the housing ; an ice crushing mechanism disposed in the ice bucket ; the housing assembly further comprises an ice-discharging plate provided at a bottom of the ice bucket , the ice-discharging plate is provided with an ice-discharging port communicated with the ice bucket , ice cubes prepared by an ice maker are discharged out of the ice-discharging port after being crushed in the ice bucket by the ice crushing mechanism , wherein the housing comprises a first portion that houses the ice bucket and a second portion in which the driving mechanism is mounted, wherein the housing assembly further comprises a bottom plate , a bottom of the second portion is open, the bottom plate covers the bottom of the second portion to seal at least a portion of the driving mechanism between the second portion and the bottom plate , characterized in that the housing comprises a groove extending along the circumferential direction of the ice bucket is provided between the ice-discharging plate and the first portion , the groove is communicated with the ice-discharging port , and a lower edge of the ice bucket projects into the groove , the bottom of the ice-discharging plate is provided with a protrusion at a position corresponding to the groove , the bottom plate is provided with a recess , and the protrusion is snap fitted in the recess .
A floor element for forming a floor covering, wherein this floor element comprises a decorative layer made of a ceramic material and a support layer arranged below this decorative layer , wherein the support layer comprises edges provided with coupling elements configured to realize a mechanical coupling with coupling elements of an adjacent floor element and wherein the floor element comprises an intermediate layer having a resin material that permeates a lower surface of the decorative layer, characterized in that the support layer comprises rigid PVC and in that the support layer has a flexural modulus between 1,5 and 3,5 GPa.
A drawer having a sidewall , a decorative element arranged at least partially above the sidewall , a first holding device for fixing the decorative element on a first front-sided end of the drawer , a second holding device for fixing the decorative element on a second front-sided end of the drawer , the first holding device including a spring element, wherein by applying a force against the spring element, the decorative element can be brought and pivoted into the plane of the sidewall , and wherein by the second holding device , the decorative element can be arrested in a force-locking and/or in a form-locking manner, and with a railing strut , the second holding device including a holding portion between the sidewall and the decorative element and a separate holding portion between the decorative element and the railing strut , wherein the first holding device is configured as a chamber in which the spring element is arranged, characterized in that the chamber and the spring element have an integral one-piece configuration.
A system comprising: a processor configured to: receive a flow at a network gateway of a cloud-based security service from a software-defined wide area network (SD-WAN) device in a customer site, wherein the flow includes a set of network packets associated with a session; inspect the flow to determine and extract meta information associated with the flow, wherein the meta information associated with the flow includes one or more of the following: an application identification associated with the flow, a user identification associated with the flow, a device identification associated with the flow, a content identification associated with the flow, and other meta information associated with the flow; and communicate the extracted meta information associated with the flow in-band in an encapsulated header using TCP options from the network gateway of the cloud-based security service to the SD-WAN device in the customer site, wherein the SD-WAN device utilizes the meta information associated with the flow based on a policy without having to use computing resources of the SD-WAN device to perform deep packet inspection in order to obtain the meta information associated with the flow, wherein the policy includes a routing policy or a security policy, and wherein the SD-WAN device enforces the routing policy or the security policy using the meta information associated with the flow; and a memory coupled to the processor and configured to provide the processor with instructions. receive a flow at a network gateway of a cloud-based security service from a software-defined wide area network (SD-WAN) device in a customer site, wherein the flow includes a set of network packets associated with a session; inspect the flow to determine and extract meta information associated with the flow, wherein the meta information associated with the flow includes one or more of the following: an application identification associated with the flow, a user identification associated with the flow, a device identification associated with the flow, a content identification associated with the flow, and other meta information associated with the flow; and communicate the extracted meta information associated with the flow in-band in an encapsulated header using TCP options from the network gateway of the cloud-based security service to the SD-WAN device in the customer site, wherein the SD-WAN device utilizes the meta information associated with the flow based on a policy without having to use computing resources of the SD-WAN device to perform deep packet inspection in order to obtain the meta information associated with the flow, wherein the policy includes a routing policy or a security policy, and wherein the SD-WAN device enforces the routing policy or the security policy using the meta information associated with the flow; and a memory coupled to the processor and configured to provide the processor with instructions.
A process for manufacturing a shaped article made of porous hydrogel that contains a polyvinyl alcohol acetalized with a dialdehyde, the process comprising gelating an aqueous solution containing a polyvinyl alcohol, a dialdehyde and a water-soluble polysaccharide to form a shaped article, and contacting the resulting shaped article with an aqueous solution containing a metal salt in 0.2 to 10 mol/L in anion equivalent with a pH of 3 or less to acetalize the polyvinyl alcohol; wherein the shaped article has a pore size of 0.1 to 50 μm, as measured according to the method mentioned in the description, and a water content of 50 to 98 % by weight and wherein an acetalization degree of the polyvinyl alcohol is 1 to 15 mol%.
Endoscopic arrangement comprising - control electronics and at least one image sensor , the image sensor being arranged at the distal end and being set up to generate its own sensor clock which can be influenced by the control electronics, and - the image sensor is connected to the control electronics and to an evaluation electronics in the proximal end via a data and supply cable , characterized in that - the control electronics are arranged at the proximal end of the endoscopic arrangement and have means for recognizing the sensor clock and/or the transmitted sensor image rate and/or the sensor image phase of the image sensor arranged at the distal end and for adapting it to a reference clock, so that the at least one image sensor can be operated synchronously to a clock not predetermined by this sensor itself; the control electronics being designed in such a way that - the sensor clock is influenced by means of a change in the sensor supply voltage , by means of the data and supply cable , or - the sensor clock is influenced by receiving configuration data by means of the data and supply cable . - control electronics and at least one image sensor , the image sensor being arranged at the distal end and being set up to generate its own sensor clock which can be influenced by the control electronics, and - the image sensor is connected to the control electronics and to an evaluation electronics in the proximal end via a data and supply cable , - the control electronics are arranged at the proximal end of the endoscopic arrangement and have means for recognizing the sensor clock and/or the transmitted sensor image rate and/or the sensor image phase of the image sensor arranged at the distal end and for adapting it to a reference clock, so that the at least one image sensor can be operated synchronously to a clock not predetermined by this sensor itself; the control electronics being designed in such a way that - the sensor clock is influenced by means of a change in the sensor supply voltage , by means of the data and supply cable , or - the sensor clock is influenced by receiving configuration data by means of the data and supply cable .
A gas cooler , comprising: an indirect heat exchanger comprising a coil; a distribution system for providing an evaporative coolant to the indirect heat exchanger ; and a direct heat exchanger configured to cool the evaporative coolant from a first temperature to a second temperature less than the first temperature prior to the evaporative coolant being provided to the indirect heat exchanger , wherein the indirect heat exchanger is configured to cool a refrigerant flowing through the coil below a dry bulb ambient air temperature by transferring heat from the refrigerant to the evaporative coolant provided to the indirect heat exchanger . an indirect heat exchanger comprising a coil; a distribution system for providing an evaporative coolant to the indirect heat exchanger ; and a direct heat exchanger configured to cool the evaporative coolant from a first temperature to a second temperature less than the first temperature prior to the evaporative coolant being provided to the indirect heat exchanger , wherein the indirect heat exchanger is configured to cool a refrigerant flowing through the coil below a dry bulb ambient air temperature by transferring heat from the refrigerant to the evaporative coolant provided to the indirect heat exchanger .