mhurhangee/ep-ind-claims huggingface dataset:
Reverse-conducting semiconductor device, which comprises a freewheeling diode and an insulated gate bipolar transistor on a common wafer, a part of which wafer forms a base layer having a doping concentration of a first conductivity type, wherein the insulated gate bipolar transistor comprises a collector side and an emitter side and the collector side is arranged opposite of the emitter side of the wafer, wherein the base layer has a base layer thickness, which is defined as the maximum thickness, which the base layer has between the collector side and the emitter side, a first layer of the first conductivity type and a second layer of a second conductivity type are arranged alternately on the collector side, wherein the first conductivity type is opposite to the second conductivity type, wherein the first layer comprises at least one first region, wherein each first region is surrounded by a first region border in a plane parallel to the collector side and has a first region width and at least one first pilot region, wherein each first pilot region is surrounded by a first pilot region border in the plane parallel to the collector side and has a first pilot region width, wherein the second layer comprises at least one second region and at least one second pilot region, wherein each second region is surrounded by a second region border in the plane parallel to the collector side and has a second region width, and each second pilot region is surrounded by a second pilot region border in the plane parallel to the collector side and has a second pilot region width, wherein any region or layer width is measured in the plane parallel to the collector side, wherein each region or layer width is defined as two times the maximum value of a shortest distance between any point within said region or layer and a point on said region or layer border, wherein the second layer does not have the same structure over the whole plane parallel to the collector side, wherein each first region width is smaller than the base layer thickness, wherein each second region width is the equal to or larger than the base layer thickness, wherein each first pilot region width is the equal to or larger than one time the base layer thickness, wherein each second pilot region width is larger than two times the base layer thickness, wherein each second pilot region width is larger than each first pilot region width, wherein the sum of the areas of the at least one second pilot region is larger than the sum of the areas of the at least one first pilot region, and wherein each first pilot region is isolated from any second pilot region by intermediate lying and alterantely arranged at least one first region and at least one second region, wherein said at least one first region and said at least one second region are adjacent to said first pilot region and/or said second pilot region.
Mechanism for displaying the number of the week in the year comprising a first mobile able to be driven by one pitch per day, the position thereof indicating the day of the week; a second mobile able to be driven by one pitch per day, the position thereof indicating the day of the month; and a third mobile, the position thereof indicating the number of the week in the year, driving a mobile member for displaying the number of the week in the year opposite a graduation or an aperture (10, 12), this mobile member for displaying the number of the week or the graduation comprising fifty three guide-marks separated by display intervals, the second mobile comprising a second cam, the third mobile comprising a star-wheel with fifty three teeth fixedly attached to an actuating member, said mechanism being arranged such that the star-wheel with fifty three teeth is driven by a pitch corresponding to one display interval per week from Sunday to the following Monday and that during week number "52" this star-wheel with fifty three teeth is driven by a double pitch corresponding to two display intervals, from Sunday to the following Monday if the Sunday of this week number "52" is not the "26 th " or the "27 th " of the month; characterised in that the first mobile comprises a first cam; in that this mechanism also comprises a first lever cooperating with the first cam, this first lever comprising a first pawl cooperating with the toothing of the star-wheel with fifty three teeth and a second pawl cooperating with the actuating member; and in that the mechanism also comprises a second lever cooperating on the one hand with the second cam and on the other hand with the second pawl, the first pawl being arranged to drive the star-wheel with fifty three teeth by one pitch when the first cam passes from a position corresponding to Sunday to a position corresponding to the following Monday of each week, the second lever and the second mobile being arranged to keep the second pawl in an inactive position, outside the trajectory of the actuating member, or to leave the second pawl in an active position according to the position of the second cam, the actuating member being on the trajectory of the second pawl only when the display mobile member displays the number "52" and when the second pawl is in an active position, so that if the Sunday of week number "52" is not the "26 th " or the "27 th " of the month the second pawl, in an active position, cooperates with the actuating member during transition from this Sunday to the following Monday to displace the star-wheel with fifty three teeth by a double pitch, and so that if the Sunday of week "52" is the "26 th " or "27 th " the second pawl, in an inactive position, cannot cooperate with the actuating member.
A mold intended to be used for the manufacture of a gas turbine fan casing made of composite material comprising: - a mandrel on which a fibrous preform of a fan casing is intended to be wound said preform comprising an annular wall the profile of the outer surface of which corresponds to that of the inner surface of the casing to be manufactured and two side flasks the profiles of which correspond to those of outer flanges (12, 13) of the casing to be manufactured; - a plurality of angular counter-mold sectors intended to be assembled in a sealed manner on the mandrel and intended to close the mold and to compact a fibrous preform wound on the mandrel, and - at least one compacting wedge, the wedge being intended to be placed between the fibrous preform wound on the mandrel and the associated angular counter-mold sector, characterized in that the compacting wedge bears on one of the side flasks of the mandrel and is intended to cover the top of one of the outer flanges of the casing to be manufactured. - a mandrel on which a fibrous preform of a fan casing is intended to be wound said preform comprising an annular wall the profile of the outer surface of which corresponds to that of the inner surface of the casing to be manufactured and two side flasks the profiles of which correspond to those of outer flanges (12, 13) of the casing to be manufactured; - a plurality of angular counter-mold sectors intended to be assembled in a sealed manner on the mandrel and intended to close the mold and to compact a fibrous preform wound on the mandrel, and - at least one compacting wedge, the wedge being intended to be placed between the fibrous preform wound on the mandrel and the associated angular counter-mold sector,
An elongate hand unit for deploying an elongate implant from the distal end of a delivery catheter, which catheter has a shaft between the distal end carrying the implant and a proximal end to which the hand unit may be coupled, the shaft comprising a push element to maintain the position of the implant during deployment and a pull element to be pulled proximally relative to the push element, by a release distance sufficient to deploy the implant, the hand unit having a distal end and a proximal end separated by a hand unit length, and comprising a pull component and a push component, the pull component having a pull grip, to be gripped and pulled proximally by the release distance, sliding on the push component, thereby to pull the pull element proximally, thereby to deploy the implant the push component to be operatively connected to the push element of the catheter shaft and having at its proximal end a push surface to receive during deployment of the implant a force that pushes on the push element shaft to resist proximal movement of the implant during deployment, the push component providing a guide rail that defines a guide path for the pull grip, with a guide path length along which the pull grip can slide proximally, from a distal to a proximal end of the guide rail whereby the proximal movement of the pull grip along the guide path deploys the implant, the hand unit being characterised by a guide path extender that is movable from a compact disposition in which the push surface is a first distance from the distal end of the hand unit to an extended disposition in which the push surface is a second distance, greater than the first distance, from the distal end of the hand unit, the guide path extender making available to the pull grip an increased guide path length.
An apparatus comprising: means for enabling a first user having a first user device to communicate with one or more second users having one or more second user devices via an immersive voice and audio services, IVAS, communication network, wherein each user has a spatial position within a virtual space, such that, for each user within the virtual space, all other users within the virtual space have a relative spatial position; means for providing spatial audio data from the first user device to the one or more second user devices and receiving spatial audio data at the first user device from the one or more second user devices, such that each user is provided with audio from the other users in the respective relative spatial positions of the other users; and means for enabling a third user having a third user device to communicate with the first user and the one or more second users via the first user device, wherein the means for enabling the third user to communicate comprises a local link between the first and third user devices, wherein audio is transmitted from the third user device to the first user device via the local link, wherein the means for providing spatial audio data further comprises means, at the first user device, for encoding a single IVAS stream comprising separate data objects for audio from each of the first and third user devices, each data object comprising direction information for the first and third users respectively. means for enabling a first user having a first user device to communicate with one or more second users having one or more second user devices via an immersive voice and audio services, IVAS, communication network, wherein each user has a spatial position within a virtual space, such that, for each user within the virtual space, all other users within the virtual space have a relative spatial position; means for providing spatial audio data from the first user device to the one or more second user devices and receiving spatial audio data at the first user device from the one or more second user devices, such that each user is provided with audio from the other users in the respective relative spatial positions of the other users; and means for enabling a third user having a third user device to communicate with the first user and the one or more second users via the first user device, wherein the means for enabling the third user to communicate comprises a local link between the first and third user devices, wherein audio is transmitted from the third user device to the first user device via the local link, wherein the means for providing spatial audio data further comprises means, at the first user device, for encoding a single IVAS stream comprising separate data objects for audio from each of the first and third user devices, each data object comprising direction information for the first and third users respectively.
A communication device (100, 200, 300) comprising: a power amplifying unit (106, 206, 306) operable to amplify a power of an input signal and output an amplified signal; a detecting unit (151, 251, 351a, 351b) operable to detect a change of a value relating to the power amplifying unit (106, 206, 306), the change of the value causing a change of a saturation power of the power amplifying unit (106, 206, 306); and a determining unit (154, 254, 354) operable, when the detecting unit detects said change of the value, to determine a Peak-to-Average Power Ratio value that is used for controlling the power of the input signal of the power amplifying unit (106, 206, 306) and is largest among Peak-to-Average Power Ratio values, each of which equaling a feedback Peak-to-Average Power Ratio value of the amplified signal of the power amplifying unit (106, 206, 306). a power amplifying unit (106, 206, 306) operable to amplify a power of an input signal and output an amplified signal; a detecting unit (151, 251, 351a, 351b) operable to detect a change of a value relating to the power amplifying unit (106, 206, 306), the change of the value causing a change of a saturation power of the power amplifying unit (106, 206, 306); and a determining unit (154, 254, 354) operable, when the detecting unit detects said change of the value, to determine a Peak-to-Average Power Ratio value that is used for controlling the power of the input signal of the power amplifying unit (106, 206, 306) and is largest among Peak-to-Average Power Ratio values, each of which equaling a feedback Peak-to-Average Power Ratio value of the amplified signal of the power amplifying unit (106, 206, 306).
A method for storing the output of non-deterministic instructions during a record mode by a guest virtual machine in a virtualized computer system, the virtual machine having a guest operating system executing via virtualization software, the virtualization software running on a host platform having a CPU, the method comprising the steps of: a) the CPU executing a non-deterministic guest instruction for the guest virtual machine while the CPU is in a guest virtual machine context and while the guest virtual machine is executing in the record mode; b) the CPU obtaining a non-deterministic value resulting from the executing of the non-deterministic guest instruction; c) the CPU storing the non-deterministic value to a buffer while the CPU is in the guest virtual machine context and without switching to a hypervisor context of a hypervisor of the virtualization software; d) repeating the steps (a) to (c) multiple times; and e) the CPU switching from the guest virtual machine context to the hypervisor context and copying at least some of the contents of the buffer to a log. a) the CPU executing a non-deterministic guest instruction for the guest virtual machine while the CPU is in a guest virtual machine context and while the guest virtual machine is executing in the record mode; b) the CPU obtaining a non-deterministic value resulting from the executing of the non-deterministic guest instruction; c) the CPU storing the non-deterministic value to a buffer while the CPU is in the guest virtual machine context and without switching to a hypervisor context of a hypervisor of the virtualization software; d) repeating the steps (a) to (c) multiple times; and e) the CPU switching from the guest virtual machine context to the hypervisor context and copying at least some of the contents of the buffer to a log.
A microscope system (1; 1a; 1b; 1c) comprising: a stage on which a specimen (S, S1, S2) is placeable; an objective lens configured to condense at least observation light from the specimen (S, S1, S2) on the stage; a transmitted illumination optical system (14, 34; 37) configured to irradiate the specimen (S, S1) with transmitted illumination light ejected from a first light source, which is illumination light transmitting the specimen (S, S1); and a microscope body part (20; 20a; 20b; 20c) including a base unit holding the transmitted illumination optical system (14, 34; 37), a supporting column standing upright from the base unit, and an incident-light illumination optical system provided on the end of a side different from the base unit side of the supporting column and configured to irradiate the specimen with incident-light illumination light which is illumination light ejected from a second light source (31; 42) to be reflected on the specimen, characterized in that the stage and the transmitted illumination optical system (14, 34; 37) are configured to be attachable to/detachable from the microscope body part (20; 20a; 20b; 20c), and the microscope system (1; 1a; 1b; 1c) is configured such when the stage and the transmitted illumination optical system (14, 34; 37) are detached from the microscope body part (20; 20a; 20b; 20c), the specimen is placeable on the base unit, that is, in the area where the transmitted illumination optical system was installed, so that the specimen may be observed using the incident-light illumination light only. a stage on which a specimen (S, S1, S2) is placeable; an objective lens configured to condense at least observation light from the specimen (S, S1, S2) on the stage; a transmitted illumination optical system (14, 34; 37) configured to irradiate the specimen (S, S1) with transmitted illumination light ejected from a first light source, which is illumination light transmitting the specimen (S, S1); and a microscope body part (20; 20a; 20b; 20c) including a base unit holding the transmitted illumination optical system (14, 34; 37), a supporting column standing upright from the base unit, and an incident-light illumination optical system provided on the end of a side different from the base unit side of the supporting column and configured to irradiate the specimen with incident-light illumination light which is illumination light ejected from a second light source (31; 42) to be reflected on the specimen,
Signal generator circuit powered by a supply voltage and including a flip-flop including a first input to which is connected a continuous input signal whose voltage level is defined, a second input to which is connected a clock signal (Sclk) whose frequency and duty cycle are defined and a third reset input, and outputting an output signal (S1, Sout) whose frequency is that of the clock signal and whose amplitude is that of the input signal, said circuit including a low-pass filter for filtering the output signal (S1, Sout) and regulating means arranged to compare the filtered output signal to a set point signal representative of the desired duty cycle and to supply a control signal connected to the third input of the D flip flop so as to activate the reset to modify the duty cycle of the output signal, characterized in that the flip-flop is a D flip-flop and in that the regulating means include a delay circuit connected to the output signal (S1, Sout) of the D flip-flop and configured to supply the control signal resetting the output signal (S1, Sout) of the generator circuit when the high state of said output signal (S1, Sout) attains the desired duty cycle.
A thermal management system (700, 800, 900), comprising: a closed dynamic cooling circuit (702, 814, 902) with a compressor (718, 816, 906), a heat rejection exchanger (722, 820, 910), and an expansion device (728, 804, 914); and a closed first steady-state cooling circuit (706, 904), wherein said circuit (706, 904) has its own compressor (738, 806, 908), heat rejection exchanger (742, 834, 912), and expansion device (754, 802, 924); a thermal energy storage system (714, 826, 918) configured to receive a dynamic thermal load and thermally couple the dynamic cooling circuit (702, 814, 902) and the first steady-state cooling circuit (706, 904); the dynamic cooling circuit (702, 814, 902) is configured to cool the TES system (714, 826, 918) to fully absorb the dynamic thermal load received by the TES system (714, 826, 918); and the first steady-state cooling circuit (706, 904) is configured to cool the TES system (714, 826, 918) when there is no dynamic thermal load. a closed dynamic cooling circuit (702, 814, 902) with a compressor (718, 816, 906), a heat rejection exchanger (722, 820, 910), and an expansion device (728, 804, 914); and a closed first steady-state cooling circuit (706, 904), wherein said circuit (706, 904) has its own compressor (738, 806, 908), heat rejection exchanger (742, 834, 912), and expansion device (754, 802, 924); a thermal energy storage system (714, 826, 918) configured to receive a dynamic thermal load and thermally couple the dynamic cooling circuit (702, 814, 902) and the first steady-state cooling circuit (706, 904); the dynamic cooling circuit (702, 814, 902) is configured to cool the TES system (714, 826, 918) to fully absorb the dynamic thermal load received by the TES system (714, 826, 918); and the first steady-state cooling circuit (706, 904) is configured to cool the TES system (714, 826, 918) when there is no dynamic thermal load.
A method of encoding a sequence of images into a bitstream using inter prediction, the method comprising: determining a target number for a slice including a plurality of blocks of an image to be encoded, wherein the image includes a plurality of slices; encoding into the bitstream information about the target number for the slice; and performing, for each of one or more of the plurality of blocks in the slice encoded by an inter prediction mode, the steps of: generating, a number of motion information predictors equal to the target number; selecting a motion information predictor from the target number of the motion information predictors; and encoding, into the bitstream, index information corresponding to the selected motion information predictor, wherein the index information is encoded so that a number of bits in the code for the index information depends on the target number and whereby the information about the target number for the slice is usable to parse the bitstream when decoding the index information corresponding to the selected motion information predictor. determining a target number for a slice including a plurality of blocks of an image to be encoded, wherein the image includes a plurality of slices; encoding into the bitstream information about the target number for the slice; and performing, for each of one or more of the plurality of blocks in the slice encoded by an inter prediction mode, the steps of: generating, a number of motion information predictors equal to the target number; selecting a motion information predictor from the target number of the motion information predictors; and encoding, into the bitstream, index information corresponding to the selected motion information predictor, generating, a number of motion information predictors equal to the target number; selecting a motion information predictor from the target number of the motion information predictors; and encoding, into the bitstream, index information corresponding to the selected motion information predictor, wherein the index information is encoded so that a number of bits in the code for the index information depends on the target number and whereby the information about the target number for the slice is usable to parse the bitstream when decoding the index information corresponding to the selected motion information predictor.