mhurhangee/ep-ind-claims huggingface dataset:
An apparatus (10, 200, 300, 400, 500, 600) for melting and refining molten glass that includes: a melting chamber; a refining chamber downstream of said melting chamber; a throat between said melting chamber and said refining chamber; and a porous body (30, 31, 32, 33, 34, 35, 36, 40, 140, 214, 322, 410, 516, 620, 622, 624) disposed at least partially within at least one of said melting chamber, said refining chamber, and said throat, and being at least partially submerged within the molten glass, said porous body including: an inlet (42, 216); and an outlet (44, 218) in fluid communication with said inlet and spaced apart from said inlet in a longitudinal direction; and wherein said porous body is monolithic and has a three-dimensional non-planar shape, and wherein the porous body has a flow-through structure and includes a labyrinth of pores (46, 46', 146) through which molten glass can flow between said inlet and said outlet, wherein said pores are defined by walls (48, 150) having wall surfaces (50, 148) that are configured to interact with molten glass flowing between said inlet and said outlet to help refine the molten glass. a melting chamber; a refining chamber downstream of said melting chamber; a throat between said melting chamber and said refining chamber; and a porous body (30, 31, 32, 33, 34, 35, 36, 40, 140, 214, 322, 410, 516, 620, 622, 624) disposed at least partially within at least one of said melting chamber, said refining chamber, and said throat, and being at least partially submerged within the molten glass, said porous body including: an inlet (42, 216); and an outlet (44, 218) in fluid communication with said inlet and spaced apart from said inlet in a longitudinal direction; and wherein said porous body is monolithic and has a three-dimensional non-planar shape, and wherein the porous body has a flow-through structure and includes a labyrinth of pores (46, 46', 146) through which molten glass can flow between said inlet and said outlet, wherein said pores are defined by walls (48, 150) having wall surfaces (50, 148) that are configured to interact with molten glass flowing between said inlet and said outlet to help refine the molten glass. an inlet (42, 216); and an outlet (44, 218) in fluid communication with said inlet and spaced apart from said inlet in a longitudinal direction; and wherein said porous body is monolithic and has a three-dimensional non-planar shape, and wherein the porous body has a flow-through structure and includes a labyrinth of pores (46, 46', 146) through which molten glass can flow between said inlet and said outlet, wherein said pores are defined by walls (48, 150) having wall surfaces (50, 148) that are configured to interact with molten glass flowing between said inlet and said outlet to help refine the molten glass.
A jack kit comprising - a jack having rivets, - a lug wrench, - a mounting hole which is used in fixing said lug wrench to the vehicle and is formed on the lug wrench, wherein said jack kit comprises - a fixing groove which is formed on said jack, and in which the end part of the lug wrench is attached, - at least one fixing member which is formed on the said lug wrench; wherein both said fixing groove and said at least one fixing member together fix the lug wrench to the jack, characterized in that said fixing member is in form of a hook arranged to be positioned on one of the rivets inside the jack base of the jack. - a jack having rivets, - a lug wrench, - a mounting hole which is used in fixing said lug wrench to the vehicle and is formed on the lug wrench, wherein said jack kit comprises - a fixing groove which is formed on said jack, and in which the end part of the lug wrench is attached, - at least one fixing member which is formed on the said lug wrench; wherein both said fixing groove and said at least one fixing member together fix the lug wrench to the jack, characterized in that said fixing member is in form of a hook arranged to be positioned on one of the rivets inside the jack base of the jack.
A sandwich structure with free flowing material between webs, said sandwich structure exhibiting a length (x-), width (y-) and thickness (z-) direction and comprising a carrier web and a cover web, and particulate free flowing material positioned z-directionally between said webs in x-y-directionally extending accumulation zones; wherein said carrier web and said cover web are bonded by melt fusion bonding by a bonding pattern, and wherein said bonding pattern is formed by individual bond points circumscribing said accumulation zones and wherein said bond points have an elliptical shape having an aspect ratio of long to short dimension of at least 1.05:1.
Furniture hinge having a fastening section and a hinge part connected thereto via a multi-axial articulated connection, wherein a spring biases the hinge part indirectly or directly at least in a partial range of the adjustment path of the hinge part relative to the fastening section, wherein the spring is tensioned or can be tensioned between two spring bearings (74, 84.4), characterized in that the spring is adjusted in the region of its two spring bearings (74, 84.4) during the adjustment of the hinge part from the open position to the closed position and/or during the adjustment from the closed position to the open position.
A belt weighing apparatus for determining the weight of a product, having a weighing plate which is removably placed onto a load cell of a scale, characterized in that the weighing plate is provided with at least one data transmission device and the scale is provided with a reception device to transmit data which characterize, in particular identify, the weighing plate from the weighing plate to the scale.
A system comprising a wheel well of an automobile and a device mounted to the wheel well of an automobile for improving the safety of the automobile in a crash, the device comprising first and second crash pads (2, 4), wherein the device absorbs and dissipates energy by converting kinetic energy into strain energy, the system being characterized by a connection beam disposed between the first and second crash pads (2, 4) and by the first and second crash pads (2, 4) being constructed of hollow, thin-walled tubular sections (34, 36, 38) sandwiched between two skins.
A fragrance precursor of ( E / Z)-9-hydroxy-5,9-dimethyldec-4-enal, comprising at least an enamine and/or an aminal as reaction product of ( E / Z)-9-hydroxy-5,9-dimethyldec-4-enal and a primary and/or secondary amine.
A method for determining the bus address of a bus sharing unit in an illumination bus system, wherein the bus sharing unit corresponds to a lighting means operating device with a data bus interface, with the step of reproducing the bus address in coded form with the aid of light-emitting diodes (6, 7) of different colors by the operating device.
A computer-implemented method for providing haptic feedback based on media content, the computer-implemented method comprising: processing the media content into a plurality of components comprising a first component and a second component; determining a first priority value related to the first component and a second priority value related to the second component; comparing the first priority value with the second priority value; determining a difference between the first priority value and the second priority value based on the comparison; determining, in response to the comparison, a first scaled priority value related to the first component and a second scaled priority value related to the second component, wherein the higher of the two priority values is scaled up and/or the lower of the two priority values is scaled down if a difference between the first priority value and the second priority value exceeds a threshold value; generating a first control signal based on the first scaled priority value and a second control signal based on the second scaled priority value; providing the first control signal to a first haptic output device, wherein the first control signal causes the first haptic output device to output the first haptic feedback; and providing the second control signal to a second haptic output device, wherein the second control signal causes the second haptic output device to output the second haptic feedback. processing the media content into a plurality of components comprising a first component and a second component; determining a first priority value related to the first component and a second priority value related to the second component; comparing the first priority value with the second priority value; determining a difference between the first priority value and the second priority value based on the comparison; determining, in response to the comparison, a first scaled priority value related to the first component and a second scaled priority value related to the second component, wherein the higher of the two priority values is scaled up and/or the lower of the two priority values is scaled down if a difference between the first priority value and the second priority value exceeds a threshold value; generating a first control signal based on the first scaled priority value and a second control signal based on the second scaled priority value; providing the first control signal to a first haptic output device, wherein the first control signal causes the first haptic output device to output the first haptic feedback; and providing the second control signal to a second haptic output device, wherein the second control signal causes the second haptic output device to output the second haptic feedback.
A tape feeder comprising: a tape feeding device configured to draw out a component supply tape wound around a reel, and feed the component supply tape to a component pickup position; a cover tape drawing-in device configured to peel off a cover tape from an upper face of the component supply tape forward of the component pickup position in accordance with a feeding operation of the component supply tape, and draw in the cover tape in a direction opposite to a feeding direction of the component supply tape; and a cover tape collection section configured to collect the cover tape drawn in by the cover tape drawing-in device, wherein the cover tape collection section is configured to expand to a vacant space in accordance with an increase in collection amount of the cover tape wherein the cover tape collection section is configured such that an expandable part thereof expands to the vacant space in the reel that becomes larger in accordance with a decrease in an amount of remaining tape on the reel. a tape feeding device configured to draw out a component supply tape wound around a reel, and feed the component supply tape to a component pickup position; a cover tape drawing-in device configured to peel off a cover tape from an upper face of the component supply tape forward of the component pickup position in accordance with a feeding operation of the component supply tape, and draw in the cover tape in a direction opposite to a feeding direction of the component supply tape; and a cover tape collection section configured to collect the cover tape drawn in by the cover tape drawing-in device, wherein the cover tape collection section is configured to expand to a vacant space in accordance with an increase in collection amount of the cover tape wherein the cover tape collection section is configured such that an expandable part thereof expands to the vacant space in the reel that becomes larger in accordance with a decrease in an amount of remaining tape on the reel.
A method of wireless communication by a user equipment, UE, comprising: communicating with a base station in a time slot having a control resource region in which control channel information is transmitted by the base station and a data resource region in which data channel information is transmitted by the base station, wherein the control resource region comprises a plurality of control resource sets, the method characterized by: receiving a semi-static indication comprised in radio resource control, RRC, signaling, wherein the semi-static indication includes a bitmap indicating which at least one control resource set of the plurality of control resource sets are for use for only control channel resources and which are for data or control channel resources; receiving a dynamic indication comprised in downlink control information, DCI, that dynamically allocates data channel resources in the at least one control resource set of the plurality of control resource sets, wherein the dynamic indication indicates which of the control resource sets in the bitmap are to be de-rate matched around; and performing de-rate matching for a downlink, DL, data transmission in the data channel resources based at least in part on the semi-static indication and the dynamic indication. receiving a semi-static indication comprised in radio resource control, RRC, signaling, wherein the semi-static indication includes a bitmap indicating which at least one control resource set of the plurality of control resource sets are for use for only control channel resources and which are for data or control channel resources; receiving a dynamic indication comprised in downlink control information, DCI, that dynamically allocates data channel resources in the at least one control resource set of the plurality of control resource sets, wherein the dynamic indication indicates which of the control resource sets in the bitmap are to be de-rate matched around; and performing de-rate matching for a downlink, DL, data transmission in the data channel resources based at least in part on the semi-static indication and the dynamic indication.
An insulating or a jacketing layer for wire or cable comprising as a base resin a copolymer of ethylene and alpha-olefin having the following properties as determined on said base resin prior to any reticulation or crosslinking: (i) a density in the range 0.912 to 0.936 g.cm -3, (ii) a melt index (190°C/2.16 kg), MI 2 from 4 to 8 g/10min, and (iii) a comonomer distribution (CDBI) of > 60%; (iv) a melt index ratio (I 21 /I 2) in the range 19 - 29. (i) a density in the range 0.912 to 0.936 g.cm -3, (ii) a melt index (190°C/2.16 kg), MI 2 from 4 to 8 g/10min, and (iii) a comonomer distribution (CDBI) of > 60%; (iv) a melt index ratio (I 21 /I 2) in the range 19 - 29.
Method for operating a motor vehicle, comprising the steps: - ascertaining at least one path data record describing a respective travelled trajectory (9, 10) of a respective further motor vehicle and sending the path data record to a vehicle-external memory device, wherein in the ascertaining of the path data record a driving geometry parameter describing the vehicle geometry of the motor vehicle travelling the trajectory (8, 9) is additionally detected and transmitted to the memory device, - providing at least one guidance data record for the motor vehicle from the memory device, each guidance data record being associated with one of the trajectories (9, 10) and being ascertained on the basis of the path data record describing the respective associated trajectory (9, 10), and - actuating the vehicle device (6, 7, 8) of the motor vehicle on the basis of the provided guidance data record, or, if multiple instances of the guidance data records are provided by the memory device, of one of the provided guidance data records that is selected by the vehicle, to output a driving instruction relating to the associated trajectory (9, 10) to a driver of the motor vehicle and/or to perform at least one driving intervention, wherein the ascertaining of the at least one guidance data record and/or the control of the vehicle device (6, 7, 8) is effected on the basis of the driving geometry parameter. - ascertaining at least one path data record describing a respective travelled trajectory (9, 10) of a respective further motor vehicle and sending the path data record to a vehicle-external memory device, wherein in the ascertaining of the path data record a driving geometry parameter describing the vehicle geometry of the motor vehicle travelling the trajectory (8, 9) is additionally detected and transmitted to the memory device, - providing at least one guidance data record for the motor vehicle from the memory device, each guidance data record being associated with one of the trajectories (9, 10) and being ascertained on the basis of the path data record describing the respective associated trajectory (9, 10), and - actuating the vehicle device (6, 7, 8) of the motor vehicle on the basis of the provided guidance data record, or, if multiple instances of the guidance data records are provided by the memory device, of one of the provided guidance data records that is selected by the vehicle, to output a driving instruction relating to the associated trajectory (9, 10) to a driver of the motor vehicle and/or to perform at least one driving intervention,
A positioning tape configured to indicate a region provided with a micropore when a skin is made in contact with a micropore forming device and is provided with the micropore by a microneedle of the micropore forming device, wherein the micropore forming device is contactable with the positioning tape, the positioning tape comprising: a supporter having a positioning portion including a step having a shape at least partially corresponding to a shape of a contact portion of the micropore forming device; and a marker portion having an opening corresponding to the region provided with the micropore; characterised in that: when the contact portion of the micropore forming device is made in contact with the positioning tape for micropore formation, the step at the positioning portion is configured to regulate shift of the micropore forming device in a skin surface direction. a supporter having a positioning portion including a step having a shape at least partially corresponding to a shape of a contact portion of the micropore forming device; and a marker portion having an opening corresponding to the region provided with the micropore; characterised in that: when the contact portion of the micropore forming device is made in contact with the positioning tape for micropore formation, the step at the positioning portion is configured to regulate shift of the micropore forming device in a skin surface direction.
An underwater propeller device comprising: a bladder body completely made of a soft material, developing along and around a central longitudinal axis, defining an internal chamber between a dorsal wall (11, 22) and a ventral wall; in said bladder body, an inlet opening and an outlet opening of a liquid in and out of said chamber, and drive means (5, 91) for driving a contraction of said bladder, characterized in that said inlet and outlet openings are arranged at a longitudinal end of the body and in that said drive means (5,21) are arranged on said dorsal wall and comprise a mechanical connection with said ventral to cyclically attract the ventral wall to the dorsal wall, thereby causing a pulsed ejection of a propeller jet from said chamber through said outlet opening.
Steering shaft for a motor vehicle, having a first shaft part and having a second shaft part which are connected to one another for the transmission of a torque and between which there is arranged a damping element for damping introduced oscillations and/or vibrations, which damping element lies with a contact surface against a carrier (2, 5), wherein the damping element is fixedly connected to the carrier (2, 5) only in a subregion, the fixing region (44, 46), of the contact surface and is not fixedly connected to the carrier (2, 5) in a region of the contact surface, characterized in that the damping element is connected by cohesion and/or adhesively to the carrier (2, 5) in the at least one fixing region (44, 46), and frictional engagement exists between damping element and carrier (2, 5) in the region not connected to the carrier (2, 5).
A data input system at an electronic device (102, 104, 106) for inputting text items to the electronic device, comprising: a store holding a vocabulary of embeddings of text items, each embedding being a numerical encoding of a text item; a processor which receives user input comprising a sequence of one or more context text items and a new text item, the new text item being a text item with an embedding to be computed and added to the vocabulary or with an embedding already in the vocabulary and to be updated; a neural network predictor trained to predict the new text item by predicting a next text item in the sequence given the context text items and the vocabulary; an online training module configured to update the vocabulary by using a direction associated with the predicted next item, by setting a direction of an embedding of the new text item in relation to the direction of an embedding of the predicted next item. a store holding a vocabulary of embeddings of text items, each embedding being a numerical encoding of a text item; a processor which receives user input comprising a sequence of one or more context text items and a new text item, the new text item being a text item with an embedding to be computed and added to the vocabulary or with an embedding already in the vocabulary and to be updated; a neural network predictor trained to predict the new text item by predicting a next text item in the sequence given the context text items and the vocabulary; an online training module configured to update the vocabulary by using a direction associated with the predicted next item, by setting a direction of an embedding of the new text item in relation to the direction of an embedding of the predicted next item.
A method of quality control for cervical screening comprising: i) testing a cervical cell sample from a human female subject, who has undergone cervical cytological evaluation and was assessed as normal, for expression of mRNA transcripts from the E6/E7 gene of at least one cancer-associated HPV type; ii) selecting the subject for repeat cervical cytological evaluation if expression of said mRNA transcripts from the E6/E7 gene of at least one cancer-associated HPV type is detected in said cervical cell sample; and iii) conducting said repeat cervical cytological evaluation of the subject, wherein the repeat cervical cytological evaluation is to be conducted on the same cervical cell sample or image of cervical cells as the initial cervical cytological evaluation. i) testing a cervical cell sample from a human female subject, who has undergone cervical cytological evaluation and was assessed as normal, for expression of mRNA transcripts from the E6/E7 gene of at least one cancer-associated HPV type; ii) selecting the subject for repeat cervical cytological evaluation if expression of said mRNA transcripts from the E6/E7 gene of at least one cancer-associated HPV type is detected in said cervical cell sample; and iii) conducting said repeat cervical cytological evaluation of the subject,