mhurhangee/ep-ind-claims huggingface dataset:
Non-woven laying apparatus, in particular a cross-laying apparatus, having a laying installation for folding an infed fibrous web and forming a multi-ply non-woven on an outfeed track of an outfeed conveyor which runs transversely or obliquely to the infeed direction, wherein the outfeed conveyor has an installation for setting a profile contour of the outfeed track which varies in the outfeed direction in the region below the web outlet of the laying installation, characterized in that the profile contour of the outfeed track in the region below the web outlet has a bending or gapping location which when viewed in the outfeed direction is disposed so as to be approximately in the central region of the width of the web outlet.
A flexible semiconductor device comprising: a flexible material layer (F10,F11,F20,600); at least one vertical semiconductor element (S10,S11,S20,500) that is at least partly embedded in the flexible material layer, the semiconductor element not being a planar mesa structure; a first electrode (E20,E21,E25,800) that is formed on a first surface of the flexible material layer and is electrically connected to a first region of the at least one vertical semiconductor element; and a second electrode (E10,E11,E15,700) that is formed on a second surface of the flexible material layer and is electrically connected to a second region of the at least one semiconductor element; and a buffer layer ((B10,B11,300) formed on a lower surface of the semiconductor element, wherein the first electrode is electrically connected to the semiconductor element via the buffer layer; wherein a portion of the semiconductor element (S10,S11,S20,500) protrudes from the flexible material layer. a flexible material layer (F10,F11,F20,600); at least one vertical semiconductor element (S10,S11,S20,500) that is at least partly embedded in the flexible material layer, the semiconductor element not being a planar mesa structure; a first electrode (E20,E21,E25,800) that is formed on a first surface of the flexible material layer and is electrically connected to a first region of the at least one vertical semiconductor element; and a second electrode (E10,E11,E15,700) that is formed on a second surface of the flexible material layer and is electrically connected to a second region of the at least one semiconductor element; and a buffer layer ((B10,B11,300) formed on a lower surface of the semiconductor element, wherein the first electrode is electrically connected to the semiconductor element via the buffer layer; wherein a portion of the semiconductor element (S10,S11,S20,500) protrudes from the flexible material layer.
Electronic room temperature controller to be mounted in a standardized wall-mounted device box, comprising - an electronic assembly which can be arranged in the device box and which can be fastened in the device box, with • an electronics housing which is made of plastic, and • an electronics unit which is arranged within the electronics housing, - a cover panel which can be attached to the electronics assembly and which can be removed from the electronics assembly, - a control element which is arranged on the cover panel and which is operatively connected to the electronics unit, and - an electrical temperature sensor which is electrically connected to the electronics unit, wherein the electronics assembly comprises a sensor dome which protrudes from the front side of the electronics housing in a dome-like manner, which is made of a plastic and within which the temperature sensor is arranged, wherein the cover panel comprises a sensor dome opening which corresponds to the sensor dome and into which the sensor dome is inserted in the assembled state of the room temperature controller, and wherein the temperature sensor is thermally connected to a sensor dome front wall characterized in that a sensor circuit board, on which the temperature sensor is arranged, is arranged within the sensor dome. - an electronic assembly which can be arranged in the device box and which can be fastened in the device box, with • an electronics housing which is made of plastic, and • an electronics unit which is arranged within the electronics housing, • an electronics housing which is made of plastic, and • an electronics unit which is arranged within the electronics housing, - a cover panel which can be attached to the electronics assembly and which can be removed from the electronics assembly, - a control element which is arranged on the cover panel and which is operatively connected to the electronics unit, and - an electrical temperature sensor which is electrically connected to the electronics unit, wherein the electronics assembly comprises a sensor dome which protrudes from the front side of the electronics housing in a dome-like manner, which is made of a plastic and within which the temperature sensor is arranged, wherein the cover panel comprises a sensor dome opening which corresponds to the sensor dome and into which the sensor dome is inserted in the assembled state of the room temperature controller, and wherein the temperature sensor is thermally connected to a sensor dome front wall characterized in that a sensor circuit board, on which the temperature sensor is arranged, is arranged within the sensor dome.
A vehicle for clearing an accumulation of matter from a surface, including: a collecting section including a blade; a casting section in matter communication with the collecting section and configured to cast matter channeled from the collecting section; and characterized in that the vehicle further includes: a shifting section configured to shift matter laterally of the vehicle, wherein the shifting section includes all of a diverting section, a sweeping section, and an air blowing section, and the diverting section including an auxiliary blade oriented at an angle about an axis transverse to a direction of travel, the sweeping section including a rotatable broom with bristles, and the air blowing section configured to blow air in a predetermined direction. a collecting section including a blade; a casting section in matter communication with the collecting section and configured to cast matter channeled from the collecting section; and characterized in that the vehicle further includes: a shifting section configured to shift matter laterally of the vehicle, wherein the shifting section includes all of a diverting section, a sweeping section, and an air blowing section, and the diverting section including an auxiliary blade oriented at an angle about an axis transverse to a direction of travel, the sweeping section including a rotatable broom with bristles, and the air blowing section configured to blow air in a predetermined direction. a shifting section configured to shift matter laterally of the vehicle, wherein the shifting section includes all of a diverting section, a sweeping section, and an air blowing section, and the diverting section including an auxiliary blade oriented at an angle about an axis transverse to a direction of travel, the sweeping section including a rotatable broom with bristles, and the air blowing section configured to blow air in a predetermined direction.
A method for reducing amount of memory required by hybrid automatic repeat request (HARQ) operations, the method comprising: receiving, by an apparatus, a first packet which is encoded by a low-density parity-check (LDPC) code; estimating, by the apparatus, a first signal quality value of the first packet; decoding, by the apparatus, the first packet using a LDPC decoding algorithm; determining by the apparatus, whether the first packet is decoded correctly and if the first packet is decoded correctly, performing the following steps: constructing, by the apparatus, a first compression codebook based on a row weight of a parity check matrix, the first signal quality value, and a predefined compression function if the first packet is not decoded correctly; compressing, by the apparatus, the first packet based on the first compression codebook; and storing, by the apparatus, the compressed first packet and the first signal quality value in a memory of the apparatus. receiving, by an apparatus, a first packet which is encoded by a low-density parity-check (LDPC) code; estimating, by the apparatus, a first signal quality value of the first packet; decoding, by the apparatus, the first packet using a LDPC decoding algorithm; determining by the apparatus, whether the first packet is decoded correctly and if the first packet is decoded correctly, performing the following steps: constructing, by the apparatus, a first compression codebook based on a row weight of a parity check matrix, the first signal quality value, and a predefined compression function if the first packet is not decoded correctly; compressing, by the apparatus, the first packet based on the first compression codebook; and storing, by the apparatus, the compressed first packet and the first signal quality value in a memory of the apparatus.
A method for power analysis of a plurality of computing platform components, the method comprising: executing, by a computer processor, a process for each component of the plurality of computing platform components, the process including: receiving identification information associated with a component; retrieving electronically stored profile data that includes historical and/or estimated power usage, thermal properties, associated logic processes, said profile data being associated with the component; and estimating an estimated power usage of the component based at least in part on the stored profile data; aggregating the estimated power usage of each component included within a device to produce an estimated power usage of the device; analyzing the estimated power usage of the plurality of computing platform components; identifying one or more problems responsive to analyzing the estimated power usage of the plurality of computing platform components using metrics to determine utilization, efficiency and component factors, and generating one or more suggestions to solve the identified one or more problems using an analytics engine. executing, by a computer processor, a process for each component of the plurality of computing platform components, the process including: receiving identification information associated with a component; retrieving electronically stored profile data that includes historical and/or estimated power usage, thermal properties, associated logic processes, said profile data being associated with the component; and estimating an estimated power usage of the component based at least in part on the stored profile data; receiving identification information associated with a component; retrieving electronically stored profile data that includes historical and/or estimated power usage, thermal properties, associated logic processes, said profile data being associated with the component; and estimating an estimated power usage of the component based at least in part on the stored profile data; aggregating the estimated power usage of each component included within a device to produce an estimated power usage of the device; analyzing the estimated power usage of the plurality of computing platform components; identifying one or more problems responsive to analyzing the estimated power usage of the plurality of computing platform components using metrics to determine utilization, efficiency and component factors, and generating one or more suggestions to solve the identified one or more problems using an analytics engine.
A method of providing a dynamic and adaptable user interface for displaying print related information and/or functionality for various types of print technologies on a display unit of an industrial printer system, the display unit comprising a processing unit and a module unit, the method comprising: detecting and determining a utilized printing technology based on a print-head type; depending on the print-head type: retrieving data to be displayed from different data sources; and receiving by said module unit at least one module from a connecting print-head; associating the at least one module with changeable portions of a template for adapting the user interface template to the detected print-head type and a detected utilized printing technology; the module being configured to affect one or more of graphical layout of the user interface, information viewed and provided by the user interface, user operational options, data sources utilized by the user interface, and alter changeable portions of the user interface template based on the print-head type and on the retrieved data; and dynamically configuring by said module and/or the processing unit at least one changeable portion of a user interface template based on the print-head type and utilized printing technology, wherein the at least one changeable portion is related to display of a printing preview or a printing status. detecting and determining a utilized printing technology based on a print-head type; depending on the print-head type: retrieving data to be displayed from different data sources; and receiving by said module unit at least one module from a connecting print-head; retrieving data to be displayed from different data sources; and receiving by said module unit at least one module from a connecting print-head; associating the at least one module with changeable portions of a template for adapting the user interface template to the detected print-head type and a detected utilized printing technology; the module being configured to affect one or more of graphical layout of the user interface, information viewed and provided by the user interface, user operational options, data sources utilized by the user interface, and alter changeable portions of the user interface template based on the print-head type and on the retrieved data; and
A device for irrigation and/or insufflation during endoscopic surgery or endoscopic procedures in a body cavity, comprising a first fluid pump device in fluid connection with the body cavity via a fluid line, wherein the first fluid pump device is adapted to deliver a fluid to the body cavity, a second fluid pump device in fluid connection with the body cavity via a fluid line, wherein the second fluid pump device is adapted to move a fluid from the body cavity, a control unit connected to the first fluid pump device and/or the second fluid pump device, a blood pressure measuring device, connected to the control unit, wherein the blood pressure measuring device is adapted to measure a blood pressure, e.g. a systemic blood pressure, and deliver a blood pressure measurement signal, wherein the control unit is adapted to derive a control signal based on the signal from the blood pressure measuring device, wherein the control unit is further adapted to send the control signal to the first fluid pump device and/or the second fluid pump device, wherein the first fluid pump device and/or the second fluid pump device is adapted to control the pressure in the body cavity based on said control signal received from the control unit, characterised in that the control signal is derived by processing the signal from the blood pressure measuring device by using a correlation factor stored in the device, wherein the correlation factor is dependent on the relationship between a blood pressure measurement signal, and a perfusion pressure of the body cavity.
A method of performing power control at a serving sector of a base station, the serving sector in communication with wireless terminals, comprising at the serving base station: obtaining, for at least two neighbor sectors, an indication of interference observed by the neighbor sectors, each neighbor sector not being designated to receive a data transmission sent by the wireless terminals in communication with the serving sector; receiving channel gains determined by the wireless terminals for the serving sector and the at least two neighbor sectors; computing a transmit power delta or a transmit power for the wireless terminals, wherein the transmit power delta or the transmit power is based on said obtained indication of interference and channel gains; and transmitting the transmit power delta or the transmit power to the wireless terminals for adjusting the wireless terminals transmit power for the data transmission. obtaining, for at least two neighbor sectors, an indication of interference observed by the neighbor sectors, each neighbor sector not being designated to receive a data transmission sent by the wireless terminals in communication with the serving sector; receiving channel gains determined by the wireless terminals for the serving sector and the at least two neighbor sectors; computing a transmit power delta or a transmit power for the wireless terminals, wherein the transmit power delta or the transmit power is based on said obtained indication of interference and channel gains; and transmitting the transmit power delta or the transmit power to the wireless terminals for adjusting the wireless terminals transmit power for the data transmission.
Method for automated emergency stopping of a motor vehicle from a starting speed (v 0) to a standstill by means of at least one braking device of the motor vehicle, wherein the braking device is actuated in order to execute a deceleration profile consisting of at least two deceleration phases, wherein, during a deceleration increase phase (Δt z), the deceleration is increased to a threshold deceleration (a g) and, during a deceleration decrease phase (Δt a) lasting until a standstill is reached, the deceleration is reduced to zero, characterised in that, during the deceleration increase and the deceleration decrease, the temporal progressions of the deceleration are at least partially defined as polynomials of the nth order, where n > 0, as a function of the starting speed (v 0), in such a way that a stopping time, which represents a necessary length of time for the emergency stopping, does not fall short of a predetermined minimum stopping time (t min) and that a distance covered during the stopping time does not exceed a predetermined maximum stopping time (s max).
A vehicle control device comprising; a friction brake device configured to generate a friction braking force in response to driver's braking operation, wherein the vehicle control device further comprises: a regenerative brake device configured to generate a regenerative braking force in response to the driver's braking operation; and a controller configured to control the friction brake device and the regenerative brake device, characterized in that, when the controller determines that driver's accelerating operation and the driver's braking operation are being simultaneously conducted, the controller expands a range of use of the regenerative brake device to reduce a rate of share of the friction brake device in an entire braking force as compared with a case where the controller determines that only the braking operation is being conducted without the accelerating operation. a regenerative brake device configured to generate a regenerative braking force in response to the driver's braking operation; and a controller configured to control the friction brake device and the regenerative brake device, characterized in that, when the controller determines that driver's accelerating operation and the driver's braking operation are being simultaneously conducted, the controller expands a range of use of the regenerative brake device to reduce a rate of share of the friction brake device in an entire braking force as compared with a case where the controller determines that only the braking operation is being conducted without the accelerating operation.
A process for preparing Gadoteridol of formula: comprising the steps: i) reacting propylene oxide of formula: with the compound of formula: wherein M is an alkaline or alkaline earth metal, preferably an alkaline metal, most preferably Na and n is 1 or 2; to obtain the compound of formula: wherein M and n are as defined above; ii) complexing the obtained compound of formula with Gd 3+ metal ion to obtain Gadoteridol of formula characterized in that: the propylene oxide is prepared by decomposition of propylene carbonate of formula: in the presence of an alkaline or alkaline earth metal halide as catalyst and directly reacted with the compound of formula without being isolated. i) reacting propylene oxide of formula: with the compound of formula: wherein M is an alkaline or alkaline earth metal, preferably an alkaline metal, most preferably Na and n is 1 or 2; to obtain the compound of formula: wherein M and n are as defined above; ii) complexing the obtained compound of formula with Gd 3+ metal ion to obtain Gadoteridol of formula the propylene oxide is prepared by decomposition of propylene carbonate of formula: in the presence of an alkaline or alkaline earth metal halide as catalyst and directly reacted with the compound of formula without being isolated.
A method for producing modified cellulose nanofibers, characterized in that a step of obtaining modified cellulose by causing cellulose having hydroxyl groups to react with a resin having an intramolecular polybasic anhydride structure and a step of miniaturizing the modified cellulose are performed in the same step, wherein the polybasic anhydride structure is a cyclic polybasic anhydride structure obtained by ring formation through dehydration condensation of carboxyl groups in the molecule.
A Pd complex containing the N,N'-disubstituted thiourea ligand represented by structure I: wherein n = 1 and 2; R 1 and R 2 are independently for each occurrence 2,4,6-trimethylphenyl, 2,5-di- t -butylphenyl, 2,6-diethylphenyl or t -butyl; R 3, R 4, R 5, and R 6 are absent; or the N,N'-disubstituted thiourea ligand represented by structure I has the following formula: wherein R is Me or 4-MeO-Ph; and the N,N'-disubstituted thiourea compound, when chiral, is a mixture of enantiomers or a single enantiomer. n = 1 and 2; R 1 and R 2 are independently for each occurrence 2,4,6-trimethylphenyl, 2,5-di- t -butylphenyl, 2,6-diethylphenyl or t -butyl; R 3, R 4, R 5, and R 6 are absent;
A skin film forming composition comprising: from 1 to 10% by weight fragrance; from 40 to 80% by weight acrylic polymer, from 0.1 to 2% by weight thickener, from 0.5 to 2.0% by weight emulsifier, from 3 to 20% by weight aqueous solution, and from 1 to 20% by weight pigment, wherein the thickener is a clay based thickener having a density of 1.4 to 2.0 g/cm 3.