mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for calibrating at least a first image recording and a second image recording, which image recordings are taken from an observation point using a camera and which image recordings comprise an object moving with respect to said observation point, wherein a first point P1 of the object and a second point P2 of the object, which points define a reference stretch R12, are moved along the length of movement vectors L1 and L2, respectively, with respect to the observation point at velocities v1 and v2, respectively, wherein R12 is oriented at an angle α1 with respect to L1 and at an angle α2 with respect to L2 and R12 defines a plane E12 with L1 and/or L2, wherein the first image recording shows a distorted point P1' and a distorted point P2' as well as a distorted reference stretch R12' at a time t1 and the second image recording shows a distorted point P1' and a distorted point P2' as well as a distorted reference stretch R12' at a time t2, wherein the distorted points P1' and P1' as well as P2' and P2' correspond to the non-distorted points P1 and P2, respectively, and are extracted from the first image recording and from the second image recording using known image processing methods, characterised in that a first movement vector L1' defining the movement of the first distorted point P1' from position P1' to position P1' from the image recordings and a second movement vector L2' defining the movement of the second distorted point P2' from position P2' to position P2' from the image recordings are determined such that mathematical modelling can be performed based on - projective equalisation under the assumption of L1 and L2 and/or R12 and R12 being parallel, - affine equalisation by producing the non-distorted angle α1 between L1 and R12 and/or the non-distorted angle α2 between L2 and R12, and - isometric rectification by determining the scaling parameter from ratio s=R12'/R12. - projective equalisation under the assumption of L1 and L2 and/or R12 and R12 being parallel, - affine equalisation by producing the non-distorted angle α1 between L1 and R12 and/or the non-distorted angle α2 between L2 and R12, and - isometric rectification by determining the scaling parameter from ratio s=R12'/R12.
An induction-heating cooker, comprising: - a top plate for supporting a heated body thereon; - a central coil (101,102) wound on a plane; - a peripheral coil (103,104) arranged around the central coil (101,102) - a driver supplying high-frequency current to the central coil (101,102) and the peripheral coil (103,104); - a power source applying direct voltage across the driver; - means for detecting load characteristics of portions of the heated body standing over the central coil (101,102) and the peripheral coil (103,104) via the top plate; and characterised by - a controller for controlling the driver, in accordance with the load resistance of the portions of the heated body, in either one of drive modes selected from: a) a parallel drive mode in which the driver is controlled with both of the central coil and the peripheral coil being connected in parallel across a direct voltage of the power source, b) a serial drive mode in which the driver is controlled with the central coil and the peripheral coil being connected in series across the direct voltage of the power source, and c) an individual drive mode in which the driver is controlled with either one of the central coil and the peripheral coil being connected across the direct voltage of the power source. - a top plate for supporting a heated body thereon; - a central coil (101,102) wound on a plane; - a peripheral coil (103,104) arranged around the central coil (101,102) - a driver supplying high-frequency current to the central coil (101,102) and the peripheral coil (103,104); - a power source applying direct voltage across the driver; - means for detecting load characteristics of portions of the heated body standing over the central coil (101,102) and the peripheral coil (103,104) via the top plate; and characterised by - a controller for controlling the driver, in accordance with the load resistance of the portions of the heated body, in either one of drive modes selected from: a) a parallel drive mode in which the driver is controlled with both of the central coil and the peripheral coil being connected in parallel across a direct voltage of the power source, b) a serial drive mode in which the driver is controlled with the central coil and the peripheral coil being connected in series across the direct voltage of the power source, and c) an individual drive mode in which the driver is controlled with either one of the central coil and the peripheral coil being connected across the direct voltage of the power source. a) a parallel drive mode in which the driver is controlled with both of the central coil and the peripheral coil being connected in parallel across a direct voltage of the power source, b) a serial drive mode in which the driver is controlled with the central coil and the peripheral coil being connected in series across the direct voltage of the power source, and c) an individual drive mode in which the driver is controlled with either one of the central coil and the peripheral coil being connected across the direct voltage of the power source.
A wire-grid polarizer device (10a, 10b) for polarizing light, comprising: a) a substrate; b) a stack of thin film layers (18a-c, 22), disposed over the substrate, and extending continuously across the substrate, the thin film layers having different refractive indices with respect to one another; wherein the refractive index of the thin film layer on the substrate is higher than the refractive index of the substrate; c) at least one of the thin film layers including a wire grid layer of elongated metal elements having lengths longer than a wavelength of the light and a period less than half the wavelength of the light; d) at least one of the thin film layers including a dielectric array of non-metal elements, the non-metal elements are aligned with the elongated metal elements; and e) at least one of the thin film layers (18a-c) being uniform in structure and material; wherein the thin film layer including a dielectric array of non-metal elements comprises two dielectric grids (124; 128) with elements of two different materials having two different indices of refraction, such that said dielectric layer comprises alternating elements of different material, or elements of one grid disposed in the spaces of another grid. a) a substrate; b) a stack of thin film layers (18a-c, 22), disposed over the substrate, and extending continuously across the substrate, the thin film layers having different refractive indices with respect to one another; wherein the refractive index of the thin film layer on the substrate is higher than the refractive index of the substrate; c) at least one of the thin film layers including a wire grid layer of elongated metal elements having lengths longer than a wavelength of the light and a period less than half the wavelength of the light; d) at least one of the thin film layers including a dielectric array of non-metal elements, the non-metal elements are aligned with the elongated metal elements; and e) at least one of the thin film layers (18a-c) being uniform in structure and material;
Radiator, in particular a bathroom radiator, comprising: - a vertical manifold made of metallic material, closed above and below by two plates (4,6), crossed internally by a heating fluid, - at least one metal sleeve hinged in a rotatable manner to said manifold, to said at least one sleeve a metallic radiating element being connected, characterised in that said radiating element is constituted by a plate. - a vertical manifold made of metallic material, closed above and below by two plates (4,6), crossed internally by a heating fluid, - at least one metal sleeve hinged in a rotatable manner to said manifold, to said at least one sleeve a metallic radiating element being connected,
An imaging system isolation enclosure comprising: a pathogen impermeable enclosure for use with one or more of radiation imaging systems and magnetic resonance imaging systems, the pathogen impermeable enclosure configured to provide a barrier between the imaging system and at least one of a patient user and an imaging room; characterised in that an air filtration system including an inlet to supply a cooling air flow to an interior of the imaging system isolation enclosure and an outlet (112, 114) to output exhaust air from an interior of the imaging system isolation enclosure, the air filtration system preventing pathogens and/or vaporized sterilization solutions from entering the internal volume of the imaging system isolation enclosure. a pathogen impermeable enclosure for use with one or more of radiation imaging systems and magnetic resonance imaging systems, the pathogen impermeable enclosure configured to provide a barrier between the imaging system and at least one of a patient user and an imaging room; characterised in that an air filtration system including an inlet to supply a cooling air flow to an interior of the imaging system isolation enclosure and an outlet (112, 114) to output exhaust air from an interior of the imaging system isolation enclosure, the air filtration system preventing pathogens and/or vaporized sterilization solutions from entering the internal volume of the imaging system isolation enclosure.
A laminated glass pane, comprising a first glass sheet, a polymeric layer having a thickness between at least 0.5 mm and at most 1.7 mm, and a second glass sheet having a thickness between at least 0.3 mm and at most 1.5 mm and made of a lithium aluminium silicate glass, wherein the polymeric layer is disposed between the at least two glass sheets (2, 4) bonding the two glass sheets (2, 4) to one another; and wherein the glasses of the first and second glass sheets (2, 4) are matched so that the temperatures at which the two glasses of the first and second glass sheets (2, 4) have the same viscosity in the viscosity range between 10 7 dPa·s and 10 10 dPa·s only differ from each other by not more than 50 °C, preferably by not more than 30 °C, more preferably by not more than 20 °C, and most preferably by not more than 10 °C; wherein the second glass sheet is a lithium aluminium silicate glass with a Li 2 O content from 4.6 wt% to 5.4 wt% and an Na 2 O content from 8.1 wt% to 9.7 wt% and an Al 2 O 3 content from 16 wt% to 20 wt%.
A sensor system for the output of navigation data and/or driving dynamics data, comprising several sensor elements (1, 3, 4) which are configured to capture at least partly different primary measurement variables and to use at least partly different measurement principles, further comprising a signal processing device, wherein the signal processing device is configured such that it jointly evaluates the sensor signals of the sensor elements, wherein the signal processing device has a strapdown algorithm unit for executing a strapdown algorithm for the output of navigation data and/or driving dynamics data, and a fusion filter, wherein the fusion filter, in the course of the joint evaluation of the sensor signals and the signals of the sensor elements derived from these through the strapdown algorithm unit, provides a defined fusion data set, wherein this fusion data set in each case includes data on defined physical variables, wherein the fusion data set includes for every physical variable a value of this physical variable and information about its data quality, wherein the fusion filter assigns to each value of a physical variable of the fusion filter in each case a variance as information on its data quality in such a way that the fusion data set comprises for each value of a physical variable of the fusion filter in each case a variance as information about the data quality, and wherein the output data of the strapdown algorithm unit additionally have the variances of the physical variables.
A genetically modified rodent, comprising a construct within an Acvr1 allele, wherein the construct comprises a mutant Acvr1 exon 5 in antisense orientation, wherein the mutant Acvr1 exon 5 is flanked upstream and downstream by a first pair of site-specific recombinase recognition sites (SRRSs) that direct an inversion of the mutant Acvr1 exon 5 upon exposure to an inducible site-specific recombinase, the rodent further comprising a second pair of SRRSs that direct a deletion of a wild-type Acvr1 exon 5 upon action of the inducible site-specific recombinase, and a gene encoding the inducible site-specific recombinase, wherein the first pair of SRRSs and the second pair of SRRSs are incompatible.
A level comprising: a frame supporting a plurality of level vials (160, 164), wherein the frame includes a hollow rectangular cross section having an upper planar surface, a lower planar surface and two sidewalls extending therebetween, wherein a passageway is bounded by interior surfaces of the upper planar surface, the lower planar surface and the two sidewalls, wherein the frame includes an aperture formed in one of the two sidewalls; an end cap assembly detachably coupled to an end opening of the passageway of the frame, the end cap assembly including an end cap and a retainer; characterised in that the end cap is received in the passageway and includes a movable tab having a button that is received in the aperture of the frame and the end cap is maintained in engagement with the frame by engagement of the retainer with the end cap; and wherein the end cap further includes an opening that receives the retainer, and the retainer biases the movable tab into the aperture when the retainer is received in the opening of the end cap to prevent removal of the end cap from the end opening of the frame. a frame supporting a plurality of level vials (160, 164), wherein the frame includes a hollow rectangular cross section having an upper planar surface, a lower planar surface and two sidewalls extending therebetween, wherein a passageway is bounded by interior surfaces of the upper planar surface, the lower planar surface and the two sidewalls, wherein the frame includes an aperture formed in one of the two sidewalls; an end cap assembly detachably coupled to an end opening of the passageway of the frame, the end cap assembly including an end cap and a retainer; characterised in that the end cap is received in the passageway and includes a movable tab having a button that is received in the aperture of the frame and the end cap is maintained in engagement with the frame by engagement of the retainer with the end cap; and wherein the end cap further includes an opening that receives the retainer, and the retainer biases the movable tab into the aperture when the retainer is received in the opening of the end cap to prevent removal of the end cap from the end opening of the frame.
A tow bar assembly for a dolly, the tow bar assembly comprising: - a tow bar, - a shaft having a first end and a second end opposing the first end, from which ends (122A, 122B) the shaft is configured to connect the tow bar to the dolly so as to provide rotation of the tow bar in respect to the dolly about an axis of revolution, and - a biasing member, such as a spring, configured to bias the tow bar towards an upright orientation about the axis of revolution, - the shaft comprises an inner cavity extending along the axis of revolution, characterized in that: - the biasing member is arranged into the cavity of the shaft and rotationally secured thereto, and in that - the shaft comprises a first end plug at the first end of the shaft for enclosing the biasing member to the cavity, which first end plug is configured to rotationally lock the biasing member to the dolly. - a tow bar, - a shaft having a first end and a second end opposing the first end, from which ends (122A, 122B) the shaft is configured to connect the tow bar to the dolly so as to provide rotation of the tow bar in respect to the dolly about an axis of revolution, and - a biasing member, such as a spring, configured to bias the tow bar towards an upright orientation about the axis of revolution, - the shaft comprises an inner cavity extending along the axis of revolution, characterized in that: - the biasing member is arranged into the cavity of the shaft and rotationally secured thereto, and in that - the shaft comprises a first end plug at the first end of the shaft for enclosing the biasing member to the cavity, which first end plug is configured to rotationally lock the biasing member to the dolly. - the biasing member is arranged into the cavity of the shaft and rotationally secured thereto, and in that - the shaft comprises a first end plug at the first end of the shaft for enclosing the biasing member to the cavity, which first end plug is configured to rotationally lock the biasing member to the dolly.
A water filter jug with a lid, wherein the lid has a filling opening with a closure element, which can be actuated by an actuation element provided for manual actuation, characterized in that the actuation element and the closure element comprise in each case at least one magnet (22, 23, 24, 25), so that the opening and closing of the closure element can be triggered by a change in position of at least one magnet with the actuation of the actuation element.
Lighting device for producing a light strip along a predetermined section (14, 20, 20') on a component wherein the lighting device is suitable for the interior of a motor vehicle, comprising - a longitudinally formed light guide (16, 18) for distributing light along the section (14, 20, 20'), - connected to the light guide a light source in the form of a coupling-in element for producing the light and for coupling it into the light guide (16, 18), - a fixed bearing device by means of which an area of the light guide (16, 18) is fixed in place with regard to the component, and - a movable bearing device by means of which the coupling-in element can be supported in a moveable manner with regard to the component in at least one direction (34, 56), characterised in that the movable bearing device has a carrier section fixed in place with regard to the component and the coupling-in device is connected with a slide of the movable bearing device which can be moved with regard to the carrier section in one sliding direction. - a longitudinally formed light guide (16, 18) for distributing light along the section (14, 20, 20'), - connected to the light guide a light source in the form of a coupling-in element for producing the light and for coupling it into the light guide (16, 18), - a fixed bearing device by means of which an area of the light guide (16, 18) is fixed in place with regard to the component, and - a movable bearing device by means of which the coupling-in element can be supported in a moveable manner with regard to the component in at least one direction (34, 56),
A handover method in which, when a first relay node and a radio base station (DeNB2) are connected via a radio bearer and a second relay node and the radio base station (DeNB2) are connected via a radio bearer, and when a signal involved in a handover process is terminated between an X2AP layer function of the first relay node and a X2AP layer function of the radio base station (DeNB2), and between the X2AP layer function of the radio base station (DeNB2) and an X2AP layer function of the second relay node, a mobile station is switched from a first state where the radio bearer is established with the first relay node in order to communicate via the first relay node and the radio base station (DeNB2) to a second state where the radio bearer is established with the second relay node in order to communicate via the second relay node and the radio base station (DeNB2), the handover method comprising in sequence: a) a step in which an X2AP layer function of the first relay node transmits a handover request signal, to request a handover, to an X2AP layer function of the radio base station (DeNB2); b) a step in which the radio base station (DeNB2) transmits the handover request signal to an X2AP layer function of the second relay node by means of the X2AP layer function; c) a step in which the X2AP layer function of the second relay node transmits a handover request acknowledgement signal to the X2AP layer function of the radio base station (DeNB2); d) a step in which the X2AP layer function of the radio base station (DeNB2) transmits a handover request acknowledgement signal to the X2AP layer function of the first relay node; and e) a step in which the first relay node transmits a handover instruction signal to instruct to hand over to the second relay node, to the mobile station by means of an RRC layer function. a) a step in which an X2AP layer function of the first relay node transmits a handover request signal, to request a handover, to an X2AP layer function of the radio base station (DeNB2); b) a step in which the radio base station (DeNB2) transmits the handover request signal to an X2AP layer function of the second relay node by means of the X2AP layer function; c) a step in which the X2AP layer function of the second relay node transmits a handover request acknowledgement signal to the X2AP layer function of the radio base station (DeNB2); d) a step in which the X2AP layer function of the radio base station (DeNB2) transmits a handover request acknowledgement signal to the X2AP layer function of the first relay node; and e) a step in which the first relay node transmits a handover instruction signal to instruct to hand over to the second relay node, to the mobile station by means of an RRC layer function.
A wipes product comprising: a. a refillable wipes container including i. a major lid, a base, and one or more walls (141, 142, 143, 144), wherein the lid, base, and wall(s) define an interior storage space for storing wipes, ii. a dispensing orifice disposed in the major lid that enables a user to access wipes stored in the interior storage space, and characterized in that iii. a lock portion disposed on the major lid, the lock portion being engageable with a key portion such that a substantially moisture impermeable barrier is formed over the dispensing orifice when the lock portion and the key portion are engaged; and b. a package of wipes that includes the key portion, the package of wipes being disposed in the interior storage space. a. a refillable wipes container including i. a major lid, a base, and one or more walls (141, 142, 143, 144), wherein the lid, base, and wall(s) define an interior storage space for storing wipes, ii. a dispensing orifice disposed in the major lid that enables a user to access wipes stored in the interior storage space, and characterized in that iii. a lock portion disposed on the major lid, the lock portion being engageable with a key portion such that a substantially moisture impermeable barrier is formed over the dispensing orifice when the lock portion and the key portion are engaged; and i. a major lid, a base, and one or more walls (141, 142, 143, 144), wherein the lid, base, and wall(s) define an interior storage space for storing wipes, ii. a dispensing orifice disposed in the major lid that enables a user to access wipes stored in the interior storage space, and characterized in that iii. a lock portion disposed on the major lid, the lock portion being engageable with a key portion such that a substantially moisture impermeable barrier is formed over the dispensing orifice when the lock portion and the key portion are engaged; and b. a package of wipes that includes the key portion, the package of wipes being disposed in the interior storage space.