mhurhangee/ep-ind-claims huggingface dataset:
A method of preparing the rendering with a color output device of at least two objects, the method comprising: - computing a first output color profile of a first color model, said first output color profile mimicking, for the human eye, a second output color profile of a second color model, said at least two objects being defined in the first color model in a page description language, and the second output color profile being a profile of the color output device and including re-rendering tables; - blending the at least two objects with the first output color profile as a blending space to generate pixels defined in the first output color profile; and - converting the pixels defined in the first output color profile, using a rendering engine, to pixels defined in the second output color profile, wherein computing the first output color profile comprises performing a pure-exponential approximation of the gamma factor of the neutral axis of the second output color profile from the re-rendering tables of the second output color profile, and wherein performing a pure-exponential approximation is characterised by obtaining one table per color component through evaluation of a linear ramp of scaled D50 XYZ values across the re-rendering tables of the second output color profile and fitting obtained results into a power function, the tables being used as a transfer function for the first output color profile. - computing a first output color profile of a first color model, said first output color profile mimicking, for the human eye, a second output color profile of a second color model, said at least two objects being defined in the first color model in a page description language, and the second output color profile being a profile of the color output device and including re-rendering tables; - blending the at least two objects with the first output color profile as a blending space to generate pixels defined in the first output color profile; and - converting the pixels defined in the first output color profile, using a rendering engine, to pixels defined in the second output color profile,
A method of trimming a resonant frequency of a micro-electromechanical resonator, comprising: resistance heating a semiconductor resonator body (14, 40, 102) having at least one mass-loading metal layer thereon for a first duration sufficient to enable out-diffusion of a metal from the at least one mass-loading metal layer into the bulk of the resonator and thereby to convert at least a portion of the semiconductor resonator body into a eutectic alloy comprising metal from the at least one mass-loading metal layer, thereby controllably trimming the resonant frequency of the micro-electromechanical resonator. resistance heating a semiconductor resonator body (14, 40, 102) having at least one mass-loading metal layer thereon for a first duration sufficient to enable out-diffusion of a metal from the at least one mass-loading metal layer into the bulk of the resonator and thereby to convert at least a portion of the semiconductor resonator body into a eutectic alloy comprising metal from the at least one mass-loading metal layer, thereby controllably trimming the resonant frequency of the micro-electromechanical resonator.
Method for detecting an occupancy state of at least one location situated in a zone (Z,SURF) monitored by an image sensor, the detection method comprising: - a step of obtaining an image of the monitored zone acquired by the image sensor; - a step of obtaining a numerical model suited to the image and representing locations delimited in the monitored zone; - a step of transforming the image into a binary image comprising pixels of a first colour associated with a first occupancy state and pixels of a second colour associated with a second occupancy state; - a step of counting on the binary image, for at least one location represented by the numerical model, a number of pixels belonging to at least one part of a volume associated with this location by the numerical model and having a colour selected from among the first and the second colour; and - a step (E60,E70,E80) of detecting an occupancy state of the said at least one location by comparing the number of pixels counted for this location with respect to a predetermined threshold; characterized in that the numerical model is a three-dimensional model representing a location of the zone monitored with the aid of at least one face delimiting the volume associated with this location, the said at least one part on which the number of pixels is counted during the counting step comprising at least one said face delimiting the volume associated with this location. - a step of obtaining an image of the monitored zone acquired by the image sensor; - a step of obtaining a numerical model suited to the image and representing locations delimited in the monitored zone; - a step of transforming the image into a binary image comprising pixels of a first colour associated with a first occupancy state and pixels of a second colour associated with a second occupancy state; - a step of counting on the binary image, for at least one location represented by the numerical model, a number of pixels belonging to at least one part of a volume associated with this location by the numerical model and having a colour selected from among the first and the second colour; and - a step (E60,E70,E80) of detecting an occupancy state of the said at least one location by comparing the number of pixels counted for this location with respect to a predetermined threshold;
A transponder chip module (TCM, 300, 400, 500) comprising: a module tape (MT, 301, 410, 510); an RFID chip (IC, 305, 404, 504) disposed on the module tape; and a module antenna (MA, PA, 304, 402, 502) disposed on the module tape; characterized by: a conductive coupling frame (CF, 320, 424, 524) disposed on the module tape having an opening (OP, 323, 405, 505) defined by an inner edge (IE, 322), an outer edge (OE, 324) and a discontinuity comprising a slit (S, 326, 426, 526) or a non-conductive stripe extending from the opening to the outer edge; wherein the opening is disposed surrounding and closely adjacent to the module antenna. a module tape (MT, 301, 410, 510); an RFID chip (IC, 305, 404, 504) disposed on the module tape; and a module antenna (MA, PA, 304, 402, 502) disposed on the module tape; characterized by: a conductive coupling frame (CF, 320, 424, 524) disposed on the module tape having an opening (OP, 323, 405, 505) defined by an inner edge (IE, 322), an outer edge (OE, 324) and a discontinuity comprising a slit (S, 326, 426, 526) or a non-conductive stripe extending from the opening to the outer edge; wherein the opening is disposed surrounding and closely adjacent to the module antenna. a conductive coupling frame (CF, 320, 424, 524) disposed on the module tape having an opening (OP, 323, 405, 505) defined by an inner edge (IE, 322), an outer edge (OE, 324) and a discontinuity comprising a slit (S, 326, 426, 526) or a non-conductive stripe extending from the opening to the outer edge; wherein the opening is disposed surrounding and closely adjacent to the module antenna.
A method for performing, by a user equipment, UE, a vehicle-to-everything, V2X, communication in a wireless communication system, the method being performed by the UE and comprising receiving, from an upper layer, a request to send a V2X message; identifying whether the UE is `Not served by evolved universal terrestrial radio access network, E-UTRAN, for V2X communication' or is 'served by E-UTRAN for V2X communication'; determining radio resources for V2X communication over PCS based on a first procedure, in case that the UE is 'served by E-UTRAN for V2X communication'; selecting radio resources for V2X communication over PCS, based on a second procedure, in case that the UE is `Not served by E-UTRAN for V2X communication'; and sending the V2X message over PCS, wherein the UE is considered as `Not served by E-UTRAN for V2X communication', based on the UE being camped on a cell indicating that V2X communication over PCS is supported, and a carrier frequency provided by the cell on which the UE is camped being different from a provisioned carrier frequency for V2X communication over PCS that the UE intends to use, wherein the first procedure comprises requesting the radio resources to a base station, and wherein the second procedure comprises, if the UE determines itself located in a geographical area and is provisioned with radio parameters for the geographical area, selecting radio parameters associated with the geographical area. receiving, from an upper layer, a request to send a V2X message; identifying whether the UE is `Not served by evolved universal terrestrial radio access network, E-UTRAN, for V2X communication' or is 'served by E-UTRAN for V2X communication'; determining radio resources for V2X communication over PCS based on a first procedure, in case that the UE is 'served by E-UTRAN for V2X communication'; selecting radio resources for V2X communication over PCS, based on a second procedure, in case that the UE is `Not served by E-UTRAN for V2X communication'; and sending the V2X message over PCS, wherein the UE is considered as `Not served by E-UTRAN for V2X communication', based on the UE being camped on a cell indicating that V2X communication over PCS is supported, and a carrier frequency provided by the cell on which the UE is camped being different from a provisioned carrier frequency for V2X communication over PCS that the UE intends to use, wherein the first procedure comprises requesting the radio resources to a base station, and wherein the second procedure comprises, if the UE determines itself located in a geographical area and is provisioned with radio parameters for the geographical area, selecting radio parameters associated with the geographical area.
A method for conversion of a starting alcohol being derived from any of biomass, triglycerides, wood, algae, fossil-based material, and syngas, or the starting alcohol is generated through any of fermentation and pyrolysis, or the starting alcohol is a fatty alcohol, wherein the method is performed in one-pot procedure without any purification of intermediates, comprising: (i) oxidizing the starting alcohol to a corresponding aldehyde or ketone, wherein the oxidizing is performed with an oxidant and a catalyst, the oxidant being any one of oxygen, air, hydrogen peroxide, and sodium hypochlorite, and the catalyst being any one of a heterogeneous supported metal catalyst, a homogeneous organometallic complex, a metal-free catalyst, and an enzyme; (ii) condensation of the corresponding aldehyde or ketone to an enal or enone using a metal-free condensation catalyst; and (iii) reducing, using a heterogeneous metal catalyst and a reducing agent, the enal or enone to a product, said product being an alcohol, an aldehyde, a ketone, an acetal or a ketal, wherein the product has a longer chain than the chain of the starting alcohol. (i) oxidizing the starting alcohol to a corresponding aldehyde or ketone, wherein the oxidizing is performed with an oxidant and a catalyst, the oxidant being any one of oxygen, air, hydrogen peroxide, and sodium hypochlorite, and the catalyst being any one of a heterogeneous supported metal catalyst, a homogeneous organometallic complex, a metal-free catalyst, and an enzyme; (ii) condensation of the corresponding aldehyde or ketone to an enal or enone using a metal-free condensation catalyst; and (iii) reducing, using a heterogeneous metal catalyst and a reducing agent, the enal or enone to a product, said product being an alcohol, an aldehyde, a ketone, an acetal or a ketal, wherein the product has a longer chain than the chain of the starting alcohol.
A method for transmitting a data packet from a transmitting router to a destination router via a network path comprising a number of hops, the method comprising: storing, in a header of said data packet, a sum of a number of packets in a playout buffer in the destination router and said number of hops; and transmitting said data packet from said transmitting router to said destination router via said network path. storing, in a header of said data packet, a sum of a number of packets in a playout buffer in the destination router and said number of hops; and transmitting said data packet from said transmitting router to said destination router via said network path.
A gripper unit, comprising a housing and a vacuum distribution unit connected to the housing such that linear motion of the vacuum distribution unit is allowed in a first direction towards and away from the housing, wherein the gripper unit comprises: - at least a first leaf spring connecting the vacuum distribution unit to the housing; - at least one vacuum suction cup, wherein the at least one suction cup is moveable between an idle position in which the at least one suction cup is arranged completely within the housing of the gripper unit, and an active position in which the at least one suction cup is extending out from said housing, wherein the position of the at least one suction cup is controlled using vacuum, characterized by further comprising a control suction cup. - at least a first leaf spring connecting the vacuum distribution unit to the housing; - at least one vacuum suction cup, wherein the at least one suction cup is moveable between an idle position in which the at least one suction cup is arranged completely within the housing of the gripper unit, and an active position in which the at least one suction cup is extending out from said housing, wherein the position of the at least one suction cup is controlled using vacuum, characterized by further comprising a control suction cup. wherein the position of the at least one suction cup is controlled using vacuum, characterized by further comprising a control suction cup.
A machine for machining workpieces with pre-machined teeth, comprising: a workpiece support; at least one workpiece spindle (6; 7) for the chucking of a workpiece, the workpiece spindle (6; 7) being arranged on the workpiece support and being adapted to be driven in rotation about a workpiece spindle axis; a meshing device, characterized in that the meshing device comprises a probe holder with a meshing probe for contactless operation, the probe holder having an axially and/or radially variable position relative to the workpiece spindle axis, in that the machine comprises at least one adjustment drive (45; 46) for changing the position of the probe holder axially and/or radially relative to the workpiece spindle axis, and in that the adjustment drive (45; 46) is arranged on a counter stand of the workpiece support above the meshing device. a workpiece support; at least one workpiece spindle (6; 7) for the chucking of a workpiece, the workpiece spindle (6; 7) being arranged on the workpiece support and being adapted to be driven in rotation about a workpiece spindle axis; a meshing device, characterized in that the meshing device comprises a probe holder with a meshing probe for contactless operation, the probe holder having an axially and/or radially variable position relative to the workpiece spindle axis, in that the machine comprises at least one adjustment drive (45; 46) for changing the position of the probe holder axially and/or radially relative to the workpiece spindle axis, and in that the adjustment drive (45; 46) is arranged on a counter stand of the workpiece support above the meshing device.
A method for determining predisposition of a subject to developing acute renal dysfunction induced by physical trauma, hypotension, sepsis and/or septic shock syndrome, wherein the method comprises the steps of:- a. determining the level of anti-inflammatory cytokine IL-1ra present in a sample taken from the subject prior to physical trauma, prior to a hypotensive event, prior to sepsis, and/or prior to septic shock syndrome; b. determining if the subject is predisposed to developing renal dysfunction following physical trauma, hypotension, sepsis and/or septic shock syndrome on the basis of the level of anti-inflammatory cytokine IL-1ra determined only in step a). a. determining the level of anti-inflammatory cytokine IL-1ra present in a sample taken from the subject prior to physical trauma, prior to a hypotensive event, prior to sepsis, and/or prior to septic shock syndrome; b. determining if the subject is predisposed to developing renal dysfunction following physical trauma, hypotension, sepsis and/or septic shock syndrome on the basis of the level of anti-inflammatory cytokine IL-1ra determined only in step a).
A first device comprising: an application processor configured to receive a control command from a second device, and transmit the control command to a secure processor being connected between the application processor and a control processor; the secure processor configured to: authenticate the control command based on an authenticated key exchange with the second device, if the control command is successfully authenticated, authorize the control command based on a source of the control command and an authorization policy which is identified based on a role of the second device, a time period, and content within the control command, and after authorizing the control command, transmit to the second device, a response including a counter related to a number of messages exchanged between the first device and the second device; and the control processor is configured to: receive, from the secure processor, the control command when the control command is authenticated and authorized by the secure processor, and execute the control command to activate at least one function of the first device. an application processor configured to receive a control command from a second device, and transmit the control command to a secure processor being connected between the application processor and a control processor; the secure processor configured to: authenticate the control command based on an authenticated key exchange with the second device, if the control command is successfully authenticated, authorize the control command based on a source of the control command and an authorization policy which is identified based on a role of the second device, a time period, and content within the control command, and after authorizing the control command, transmit to the second device, a response including a counter related to a number of messages exchanged between the first device and the second device; and authenticate the control command based on an authenticated key exchange with the second device, if the control command is successfully authenticated, authorize the control command based on a source of the control command and an authorization policy which is identified based on a role of the second device, a time period, and content within the control command, and after authorizing the control command, transmit to the second device, a response including a counter related to a number of messages exchanged between the first device and the second device; and the control processor is configured to: receive, from the secure processor, the control command when the control command is authenticated and authorized by the secure processor, and execute the control command to activate at least one function of the first device. receive, from the secure processor, the control command when the control command is authenticated and authorized by the secure processor, and execute the control command to activate at least one function of the first device.
A hydrogenolysis catalyst comprising: a catalytic component comprising copper oxide, manganese oxide, and aluminum oxide; and a binder comprising a zirconium component, wherein: the catalyst comprises copper oxide in an amount from 45 wt% to 55 wt%, the catalyst comprises less than 1.5 wt.% of silicon or an oxide thereof, based on the total weight of the hydrogenolysis catalyst, and wherein the zirconium component is present in an amount from 4 wt% to 15 wt% by weight of the hydrogenolysis catalyst. a catalytic component comprising copper oxide, manganese oxide, and aluminum oxide; and a binder comprising a zirconium component, wherein: the catalyst comprises copper oxide in an amount from 45 wt% to 55 wt%, the catalyst comprises less than 1.5 wt.% of silicon or an oxide thereof, based on the total weight of the hydrogenolysis catalyst, and the catalyst comprises copper oxide in an amount from 45 wt% to 55 wt%, the catalyst comprises less than 1.5 wt.% of silicon or an oxide thereof, based on the total weight of the hydrogenolysis catalyst, and wherein the zirconium component is present in an amount from 4 wt% to 15 wt% by weight of the hydrogenolysis catalyst.
An auditory prosthesis system comprising: a sound pre-processor for initial processing of an input acoustic audio signal to form a pre-processed audio signal; a low frequency processor for receiving the pre-processed audio signal to determine a low frequency signal conveying lower audio frequency information including periodicity and fundamental frequency characteristics; a high frequency processor for receiving the pre-processed audio signal to determine a high frequency signal conveying higher audio frequency information including band-pass envelope characteristics; a low frequency stimulator for delivering a low frequency stimulation signal based on the low frequency signal to the auditory system of a patient; and a high frequency signal stimulator including a cochlear implant electrode array having a plurality of high frequency stimulation electrodes for delivering a high frequency stimulation signal based on the high frequency signal to nearby neural tissue in the auditory system of the patient, characterized in that the high frequency stimulator is configured to provide to each high frequency stimulation electrode a sequence of electric pulses at a pulse rate of less than 100 Hz. a sound pre-processor for initial processing of an input acoustic audio signal to form a pre-processed audio signal; a low frequency processor for receiving the pre-processed audio signal to determine a low frequency signal conveying lower audio frequency information including periodicity and fundamental frequency characteristics; a high frequency processor for receiving the pre-processed audio signal to determine a high frequency signal conveying higher audio frequency information including band-pass envelope characteristics; a low frequency stimulator for delivering a low frequency stimulation signal based on the low frequency signal to the auditory system of a patient; and a high frequency signal stimulator including a cochlear implant electrode array having a plurality of high frequency stimulation electrodes for delivering a high frequency stimulation signal based on the high frequency signal to nearby neural tissue in the auditory system of the patient, characterized in that the high frequency stimulator is configured to provide to each high frequency stimulation electrode a sequence of electric pulses at a pulse rate of less than 100 Hz.