mhurhangee/patent-ind-claim-en huggingface dataset:
Method for forming a thermal inkjet printhead, comprising the step of: providing a semiconductor wafer including an integrated electronic circuit and a section for forming a thermal actuator element, the integrated circuit comprising at least: a thermal insulating layer formed over a substrate ; and a first metal layer formed over the thermal insulating layer; wherein the first metal layer extends into the section for forming the thermal actuator element; and characterized by further comprising the step of: etching the section for forming a thermal actuator element to the first metal layer such that the first metal layer is acting as an etch stop layer, and further by the step that the integrated electronic circuit is produced in a complementary metal oxide semiconductor, CMOS, foundry and the section for forming a thermal actuator element is produced in a micro-electromechanical system, MEMS, foundry. providing a semiconductor wafer including an integrated electronic circuit and a section for forming a thermal actuator element, the integrated circuit comprising at least: a thermal insulating layer formed over a substrate ; and a first metal layer formed over the thermal insulating layer; a thermal insulating layer formed over a substrate ; and a first metal layer formed over the thermal insulating layer; wherein the first metal layer extends into the section for forming the thermal actuator element; and characterized by further comprising the step of: etching the section for forming a thermal actuator element to the first metal layer such that the first metal layer is acting as an etch stop layer, and further by the step that the integrated electronic circuit is produced in a complementary metal oxide semiconductor, CMOS, foundry and the section for forming a thermal actuator element is produced in a micro-electromechanical system, MEMS, foundry. etching the section for forming a thermal actuator element to the first metal layer such that the first metal layer is acting as an etch stop layer, and further by the step that the integrated electronic circuit is produced in a complementary metal oxide semiconductor, CMOS, foundry and the section for forming a thermal actuator element is produced in a micro-electromechanical system, MEMS, foundry.
A method for displaying a representation indicator of an object, the object being a virtual machine included in a network in a cluster environment, wherein the method comprises: determining (S310), values of representation indicators of N objects at a plurality of sampling time points, wherein N≥2, wherein the representation indicator is an indicator that reflects a running status or a health status of the object; and generating (S315), based on the values of the representation indicators of the N objects at the plurality of sampling time points, image information used to display changes of the representation indicators, wherein the image information comprises the plurality of sampling time points, values of representation indicators of a plurality of objects that meet a sorting requirement at the sampling time points, and association information, and the association information is used to associate values of representation indicators that are at a same sorting position at the sampling time points, to reflect changes of the values of the representation indicators that are at the same sorting position, wherein a same feature is used for displaying the association information in the image information that meets the requirement of the same sorting position. determining (S310), values of representation indicators of N objects at a plurality of sampling time points, wherein N≥2, wherein the representation indicator is an indicator that reflects a running status or a health status of the object; and generating (S315), based on the values of the representation indicators of the N objects at the plurality of sampling time points, image information used to display changes of the representation indicators, wherein the image information comprises the plurality of sampling time points, values of representation indicators of a plurality of objects that meet a sorting requirement at the sampling time points, and association information, and the association information is used to associate values of representation indicators that are at a same sorting position at the sampling time points, to reflect changes of the values of the representation indicators that are at the same sorting position, wherein a same feature is used for displaying the association information in the image information that meets the requirement of the same sorting position.
A terahertz wave generator comprising: a nonlinear crystal capable of generating terahertz wave based on a parametric effect, a pumping beam emitter that emits pumping beam (L1), a seed beam emitter capable of changing a wavelength of emitted seed beam (L2), beam guide means for guiding the seed beam (L2) emitted from the seed beam emitter to the nonlinear crystal , and a convex lens that is disposed on an optical path of the seed beam (L2) and collects the seed beam (L2), the terahertz wave generator being configured so that the pumping beam (L1) and the seed beam (L2) are caused to be incident on the nonlinear crystal at an angle of incidence that satisfies a phase matching condition to cause the nonlinear crystal to generate terahertz wave, whereas the beam guide means includes a first mirror that reflects the seed beam (L2) emitted from the seed beam emitter at a first angle of reflection, characterized in that a movable stage is provided that is configured to be movable along the optical path of the seed beam (L2) incident on the first mirror and supports the first mirror at a predetermined angle with respect to the optical path of the seed beam (L2), a movement mechanism is provided that moves a reflection surface of the first mirror along the optical path of the seed beam (L2) emitted from the seed beam emitter and incident on the first mirror by moving the movable stage , and the first mirror is moved by the movement mechanism in accordance with the wavelength of the seed beam (L2) emitted from the seed beam emitter to change a position where the seed beam (L2) is incident on the convex lens so that the angle of incidence of the seed beam incident on the nonlinear crystal is changed to satisfy the phase matching condition.
A sensorized exoskeleton system for enhancing physical performances and/or for providing assistance with limb movement in regard to load-involved tasks, the system comprising: • At least one sensorized wearable unit comprising a plurality of strain sensors configured to fit a user's forearm and to allow rotation, flexion, extension, pronation and supination of the user's arm; • An actuation unit comprising a plurality of electrical, electronic and mechanical elements; • A plurality of mechanical elements configured to be fixed to a ceiling or other fixed structure allowing the actuation unit to move horizontally on two rails and to rotate through 360°; • A structure that mechanically and electrically connects the sensorized wearable unit to the actuation unit and moves along a vertical axis; • A plurality of sensorized rotative components and position sensors installed throughout the at least one sensorized wearable unit , the structure and the actuation unit ; • At least one electronic microcontroller that processes the signals sent by the position sensors , the sensorized rotative components , and the strain sensors ; • At least one sensorized wearable unit comprising a plurality of strain sensors configured to fit a user's forearm and to allow rotation, flexion, extension, pronation and supination of the user's arm; • An actuation unit comprising a plurality of electrical, electronic and mechanical elements; • A plurality of mechanical elements configured to be fixed to a ceiling or other fixed structure allowing the actuation unit to move horizontally on two rails and to rotate through 360°; • A structure that mechanically and electrically connects the sensorized wearable unit to the actuation unit and moves along a vertical axis; • A plurality of sensorized rotative components and position sensors installed throughout the at least one sensorized wearable unit , the structure and the actuation unit ; • At least one electronic microcontroller that processes the signals sent by the position sensors , the sensorized rotative components , and the strain sensors ;
A knitted shoe component comprising: a toe portion ; a first wing portion extending from the toe portion and knittingly joined to the toe portion; a second wing portion extending from the toe portion and knittingly joined to the toe portion; and a heel portion , characterized in that the first wing portion and the second wing portion are knittingly joined to one another through a welt at the heel portion . a toe portion ; a first wing portion extending from the toe portion and knittingly joined to the toe portion; a second wing portion extending from the toe portion and knittingly joined to the toe portion; and a heel portion , characterized in that the first wing portion and the second wing portion are knittingly joined to one another through a welt at the heel portion .
Impact bar for installation in an axially parallel impact bar mount of a rotor of an impact crusher, with following features: a. The impact bar has within a Cartesian co-ordinate system a longitudinal axis which extends in the z direction parallel to the impact bar mount in the installation position, a vertical axis which extends in the y direction and is directed towards a radial head face of the impact bar , and a transverse axis which extends in the x direction and is directed towards a long side of the impact bar ; b. The impact bar has two end front faces on each of its long sides and a front and a rear holding region between the front faces , wherein the holding regions are each delimited by two longitudinal ribs which project with respect to the front faces , wherein the longitudinal ribs are arranged in mirror symmetry in relation to the y-z plane and the x-z plane; c. The longitudinal ribs (17 - 20) are trapezoidal in cross-section, with a wide base on the impact bar and a narrower upper face spaced apart from the base , and with, in each case, an inner oblique flank and an outer flank , wherein the flanks (23 - 27) extend between the base and the upper face and wherein the inner flanks (23 - 26) extend at a flank angle (W1) from 20° to 27° to the x direction; d. Inner flanks (23 - 26) arranged diagonally opposite in pairs extend in a common plane; e. Only the inner flanks (23 - 26) can be supported in the installation position for transmission of forces into the impact bar mount on the rotor . a. The impact bar has within a Cartesian co-ordinate system a longitudinal axis which extends in the z direction parallel to the impact bar mount in the installation position, a vertical axis which extends in the y direction and is directed towards a radial head face of the impact bar , and a transverse axis which extends in the x direction and is directed towards a long side of the impact bar ; b. The impact bar has two end front faces on each of its long sides and a front and a rear holding region between the front faces , wherein the holding regions are each delimited by two longitudinal ribs which project with respect to the front faces , wherein the longitudinal ribs are arranged in mirror symmetry in relation to the y-z plane and the x-z plane; c. The longitudinal ribs (17 - 20) are trapezoidal in cross-section, with a wide base on the impact bar and a narrower upper face spaced apart from the base , and with, in each case, an inner oblique flank and an outer flank , wherein the flanks (23 - 27) extend between the base and the upper face and wherein the inner flanks (23 - 26) extend at a flank angle (W1) from 20° to 27° to the x direction; d. Inner flanks (23 - 26) arranged diagonally opposite in pairs extend in a common plane; e. Only the inner flanks (23 - 26) can be supported in the installation position for transmission of forces into the impact bar mount on the rotor .
A method of cleaning a SiC monocrystal growth furnace by using a gas to clean a SiC monocrystal growth furnace provided with an in-furnace substrate composed of a 3C-SiC polycrystal having at least a surface in which an intensity ratio of a plane with respect to other crystal planes is at least 85% but not more than 100% according to powder XRD analysis, wherein the in-furnace substrate includes the inner wall of the SiC monocrystal growth furnace and the members inside the SiC monocrystal growth furnace, the method comprising: flowing a mixed gas of fluorine gas and an inert gas in a non-plasma state through an inside of the SiC monocrystal growth furnace, thereby selectively removing a SiC deposit deposited inside the SiC monocrystal growth furnace, wherein the SiC deposit is a 3C-SiC polycrystal having an intensity ratio of the plane with respect to the other crystal planes of less than 85% according to powder XRD analysis, and the mixed gas comprises at least 1 vol% but not more than 20 vol% of fluorine gas, and at least 80 vol% but not more than 99 vol% of an inert gas, and a temperature inside the SiC monocrystal growth furnace is at least 200°C but not more than 500°C. flowing a mixed gas of fluorine gas and an inert gas in a non-plasma state through an inside of the SiC monocrystal growth furnace, thereby selectively removing a SiC deposit deposited inside the SiC monocrystal growth furnace, wherein the SiC deposit is a 3C-SiC polycrystal having an intensity ratio of the plane with respect to the other crystal planes of less than 85% according to powder XRD analysis, and the mixed gas comprises at least 1 vol% but not more than 20 vol% of fluorine gas, and at least 80 vol% but not more than 99 vol% of an inert gas, and a temperature inside the SiC monocrystal growth furnace is at least 200°C but not more than 500°C.
Method for separating palladium from the other metal elements contained in a nitric aqueous phase comprising: - putting into contact a nitric aqueous phase containing, in addition to palladium, at least one other metal cation the valence of which is greater than or equal to 2 with an organic phase immiscible with water then - separating the nitric aqueous phase and the organic phase wherein the palladium has been extracted, said organic phase containing, as an extractant, at least one malonamide free of sulphur atoms of formula (I): R 1 (R 2 )N-C(=O)-CH 2 -C(=O)-N(R 3 )R 4 (I) in which the R 1 , R 2 , R 3 and R 4 groups, identical or different, represent an alkyl, an heteroalkyl or an arylalkyl, said alkyl, heteroalkyl and arylalkyl being free of sulphur atoms and each having at least 5 carbon atoms. - putting into contact a nitric aqueous phase containing, in addition to palladium, at least one other metal cation the valence of which is greater than or equal to 2 with an organic phase immiscible with water then - separating the nitric aqueous phase and the organic phase wherein the palladium has been extracted,
A method performed by a user equipment, UE , the method comprising: transmitting uplink data to a network and storing the uplink data in an uplink hybrid automatic repeat request, HARQ buffer of the UE, wherein an inactivity timer is activated at a start of the transmission of the uplink data; receiving an acknowledgment, ACK, from the network for receipt of the transmitted uplink data; measuring a maximum HARQ retransmission time at the UE after receiving the ACK based on a discontinuous reception, DRX retransmission timer and a number of HARQ retransmissions; comparing the measured maximum HARQ retransmission time with a remaining DRX cycle time of the UE and determining a link state of the UE, wherein the link state of the UE is based on a link quality metric that is associated with probability that a UE misdetects a negative ACK, NACK, transmitted from the network, as an ACK; switching , after expiration of the inactivity timer, the UE to a sleep mode and removing the uplink data from the uplink HARQ buffer when the maximum HARQ retransmission time is less than the remaining DRX cycle time and the link state of the UE is less than a threshold value; and switching, after the expiration of the inactivity timer, the UE to a sleep mode when the maximum HARQ retransmission time is greater than the remaining DRX cycle time of the UE and the link state of the UE is less than the threshold value. transmitting uplink data to a network and storing the uplink data in an uplink hybrid automatic repeat request, HARQ buffer of the UE, wherein an inactivity timer is activated at a start of the transmission of the uplink data; receiving an acknowledgment, ACK, from the network for receipt of the transmitted uplink data; measuring a maximum HARQ retransmission time at the UE after receiving the ACK based on a discontinuous reception, DRX retransmission timer and a number of HARQ retransmissions; comparing the measured maximum HARQ retransmission time with a remaining DRX cycle time of the UE and determining a link state of the UE, wherein the link state of the UE is based on a link quality metric that is associated with probability that a UE misdetects a negative ACK, NACK, transmitted from the network, as an ACK; switching , after expiration of the inactivity timer, the UE to a sleep mode and removing the uplink data from the uplink HARQ buffer when the maximum HARQ retransmission time is less than the remaining DRX cycle time and the link state of the UE is less than a threshold value; and switching, after the expiration of the inactivity timer, the UE to a sleep mode when the maximum HARQ retransmission time is greater than the remaining DRX cycle time of the UE and the link state of the UE is less than the threshold value.
Method for processing a multimedia object (MESS) sent by a sending device and received (F10) by a recipient device , said method being implemented by the recipient device and comprising: - a step (F40) of obtaining at least one visual or audio representation of surroundings of the recipient device, acquired when the multimedia object is opened on the recipient device; - a step (F50) of extracting, from said representation, at least one item of information regarding users liable to have had access to content of the multimedia object when it was opened on the recipient device; and - a step (F60) of sending said at least one item of information to the sending device. - a step (F40) of obtaining at least one visual or audio representation of surroundings of the recipient device, acquired when the multimedia object is opened on the recipient device; - a step (F50) of extracting, from said representation, at least one item of information regarding users liable to have had access to content of the multimedia object when it was opened on the recipient device; and - a step (F60) of sending said at least one item of information to the sending device.
An aerosol generator , comprising - a housing having a first holding member (24, 24', 24") and a second holding member , and - a vibratable element for generating an aerosol, wherein - the vibratable element is at least partially accommodated in the housing , - the vibratable element is contacted by and held between the first and second holding members (24, 24', 24"; 38), - the first holding member (24, 24', 24") is less flexible than the second holding member , and - the housing comprises a fluid reservoir for receiving a fluid to be aerosolised, characterized in that the second holding member is provided on the fluid reservoir . - a housing having a first holding member (24, 24', 24") and a second holding member , and - a vibratable element for generating an aerosol, wherein - the vibratable element is at least partially accommodated in the housing , - the vibratable element is contacted by and held between the first and second holding members (24, 24', 24"; 38), - the first holding member (24, 24', 24") is less flexible than the second holding member , and - the housing comprises a fluid reservoir for receiving a fluid to be aerosolised,
Spline connection, comprising a hub having a toothing profile on the inner circumference, an axle journal having a toothing profile on an outer circumferential portion , and also a shoulder for axial support and/or abutment against the hub , and a tensioning device for axially bracing the axle journal with the hub , the hub has a constant toothing profile over its toothing length and the axle journal has, over its toothing length, a first portion and a second portion with different toothing profiles , wherein the first portion is arranged on the insertion side, so as to be further away from the shoulder than the second portion , and has a constant toothing profile which has play with respect to the toothing profile of the hub , and the second portion is arranged on the shoulder side and has a toothing profile which has reduced tooth spaces compared with the first portion and which is play-free with respect to the toothing profile of the hub , and wherein the second portion is arranged in such a way that only after the first portion has been inserted with play into the hub can said second portion be compressed with the toothing profile of the hub in a play-free manner by subsequent tightening of the tensioning device , characterized in that , on the second portion , the spaces between the teeth of the toothing profile become continuously smaller in a longitudinal direction (A) of the toothing. a hub having a toothing profile on the inner circumference, an axle journal having a toothing profile on an outer circumferential portion , and also a shoulder for axial support and/or abutment against the hub , and a tensioning device for axially bracing the axle journal with the hub , the hub has a constant toothing profile over its toothing length and the axle journal has, over its toothing length, a first portion and a second portion with different toothing profiles , wherein the first portion is arranged on the insertion side, so as to be further away from the shoulder than the second portion , and has a constant toothing profile which has play with respect to the toothing profile of the hub , and the second portion is arranged on the shoulder side and has a toothing profile which has reduced tooth spaces compared with the first portion and which is play-free with respect to the toothing profile of the hub , and wherein the second portion is arranged in such a way that only after the first portion has been inserted with play into the hub can said second portion be compressed with the toothing profile of the hub in a play-free manner by subsequent tightening of the tensioning device ,
Lens with a metasurface intended to receive an incident wave of a given wavelength, characterised in that it comprises at least one first array of resonators, said resonators of the first array being crosses having identical shapes, said first array being located in a plane of the lens, each cross comprising at least one first arm , called long arm, extending along a first axis and a second arm , called short arm, having a length strictly less than the long arm and extending along a second axis, substantially orthogonal to the first axis, each cross phase shifting the incident wave by introducing a specific phase shift ( φ i ) depending on the orientation of the cross ( ψ i ) with respect to a reference direction in the plane of the lens, the crosses of the first array not having one single orientation.